ByteSnap Design vs A-listware: full comparison for 2026
Quick verdict
ByteSnap Design (4.3/5) edges ahead of A-listware (3.9/5) overall. ByteSnap Design is the better choice for connected-device RFPs needing broad wireless protocol coverage. A-listware is the stronger option for staff augmentation RFPs needing remote embedded firmware engineering capacity. The right choice depends on your project size, budget, and required tech stack.
ByteSnap Design vs A-listware: head-to-head summary
| Criterion | ByteSnap Design | A-listware |
|---|---|---|
| Founded | 2008 | 2017 |
| HQ | Birmingham, UK | London, UK (R&D center in Ukraine) |
| Team size | 37 | 51–200 |
| Rating | 4.3 / 5 | 3.9 / 5 |
| Primary differentiator | Wireless protocol breadth across ZigBee, LoRa, Wi-Fi, BLE, and GSM combined with in-house electronics design | Remote engineering team delivery model with embedded firmware and legacy modernization as named service lines |
| Pricing model | Project-based embedded and electronics engagements | Staff augmentation and dedicated remote team engagements |
| Min. engagement | Not published | Not published |
| Primary tech stack | C, C++, Embedded Linux | C, C++, Legacy System Modernization Tooling |
| Industries served | Consumer electronics, Industrial IoT, Telecommunications | Industrial IoT, Legacy hardware modernization |
ByteSnap Design vs A-listware: overview
ByteSnap Design
ByteSnap Design was founded in 2008 by Dunstan Power and Graeme Wintle and operates from Birmingham, UK with roughly 37 employees, with stated plans to grow toward 50. Its engagement scope covers embedded software and firmware design, electronics design, and embedded Linux and Android porting, with wireless protocol coverage spanning ZigBee, LoRa, Wi-Fi, Bluetooth Low Energy, and GSM. For a procurement evaluation comparing bidders on breadth of connectivity support alone, that protocol list is wider than most competing firmware-only vendors can claim.
A-listware
A-listware was founded in 2017 and is headquartered in London, UK, with an R&D center in Ukraine and a reported 51 to 200 employees. The company's core model centers on delivering remote engineering teams to clients, with embedded systems and IoT development, including firmware development, legacy system modernization, and hardware integration, named among its service lines. For an RFP structured as staff augmentation rather than a fixed-deliverable project, A-listware's remote-team model is built specifically for that engagement shape.
Services and capabilities: ByteSnap Design vs A-listware
| Capability | ByteSnap Design | A-listware |
|---|---|---|
| Firmware development | ✓ | ✓ |
| Hardware / PCB co-design | ✓ | ✗ |
| Functional safety / certification | ✗ | ✗ |
| Defense / aerospace credentials | ✗ | ✗ |
| Medical device firmware | ✗ | ✗ |
| Secure firmware updates | ✗ | ✗ |
| IoT connectivity | ✓ | ✓ |
| Embedded Linux | ✓ | ✗ |
| Staff augmentation | ✗ | ✓ |
Tech stack comparison: ByteSnap Design vs A-listware
| Framework / platform | ByteSnap Design | A-listware |
|---|---|---|
| C | ✓ | ✓ |
| C++ | ✓ | ✓ |
| Embedded Linux | ✓ | N/A |
| PCB Design | N/A | N/A |
| FPGA | N/A | N/A |
| MISRA C | N/A | N/A |
| ITAR | N/A | N/A |
| AWS IoT | N/A | N/A |
| ASIL | N/A | N/A |
Pricing comparison: ByteSnap Design vs A-listware
| Criterion | ByteSnap Design | A-listware |
|---|---|---|
| Minimum engagement | Not published | Not published |
| Engagement models | Project-based embedded engineering | Staff augmentation, Dedicated remote teams |
| Rate transparency | Not public | Not public |
| Price tier | Mid-market | Mid-market |
Target audience comparison: ByteSnap Design vs A-listware
| Dimension | ByteSnap Design | A-listware |
|---|---|---|
| Best company size | Startup to mid-market | Startup to mid-market |
| Best industries | Consumer electronics, Industrial IoT, Telecommunications | Industrial IoT, Legacy hardware modernization |
| Best use cases | Multi-protocol wireless firmware RFP for a new connected consumer device, Embedded Linux or Android porting for a higher-complexity IoT program | Staff augmentation RFP for an in-house firmware team needing additional remote engineering capacity, Legacy embedded system modernization for an aging industrial product |
| Typical project type | Project-based embedded engineering | Staff augmentation |
ByteSnap Design vs A-listware: pros and cons
| ByteSnap Design | |
|---|---|
| + | Wireless protocol coverage across five distinct standards is broader than most vendors bidding on a similar connected-device RFP |
| + | In-house electronics design keeps hardware and firmware line items with one vendor |
| + | 17 years of continuous operation under its original two founders |
| + | Embedded Linux and Android porting experience covers higher-complexity connected products beyond bare-metal MCU work |
| - | 37 employees, growing toward 50, is smaller than firms bidding on the largest connected-device programs |
| - | No published pricing or minimum engagement threshold |
| - | Some wireless protocol claims are per company website and independently unverifiable beyond that source |
| A-listware | |
|---|---|
| + | Staff augmentation model gives an RFP evaluator direct control over embedded engineers working inside their own existing processes |
| + | Legacy system modernization is a named specialty, useful for an RFP centered on an aging codebase rather than greenfield development |
| + | UK headquarters with a Ukraine R&D center gives Western business hours coordination with Eastern European delivery cost structure |
| + | 8 years of operating history with a reported 51 to 200 employees |
| - | Firmware development is one line among several IoT and embedded services rather than the company's sole specialty |
| - | Staff augmentation suits an RFP where the buyer already has in-house firmware leadership; it is a narrower fit for a fully managed project delivery ask |
| - | No published pricing or minimum engagement figure |
Who should choose ByteSnap Design?
A typical fit: multi-protocol wireless firmware RFP for a new connected consumer device.
Wireless protocol breadth across ZigBee, LoRa, Wi-Fi, BLE, and GSM combined with in-house electronics design. Minimum engagement is not publicly disclosed. Works best with clients in Consumer electronics, Industrial IoT, Telecommunications.
Who should choose A-listware?
A typical fit: staff augmentation RFP for an in-house firmware team needing additional remote engineering capacity.
Remote engineering team delivery model with embedded firmware and legacy modernization as named service lines. Minimum engagement is not publicly disclosed. Works best with clients in Industrial IoT, Legacy hardware modernization.
Decision matrix: ByteSnap Design vs A-listware
| Your situation | Recommended choice |
|---|---|
| You need full-ownership delivery on a defined project scope | Both offer fixed-price models |
| You need a large dedicated team for an ongoing programme | A-listware |
| Your budget is at the lower end | Compare: ByteSnap Design (Not published) vs A-listware (Not published) |
| You need specialist depth in a specific vertical | ByteSnap Design |
| You need staff augmentation or team extension | A-listware |
| You need consulting before committing to a build | Both may offer discovery engagements |
Use case fit: ByteSnap Design vs A-listware
| Use case | ByteSnap Design fit | A-listware fit | Winner |
|---|---|---|---|
| Multi-protocol wireless firmware RFP for a new connected consumer device | Strong | Limited | ByteSnap Design |
| Embedded Linux or Android porting for a higher-complexity IoT program | Strong | Strong | Both equally |
| Staff augmentation RFP for an in-house firmware team needing additional remote engineering capacity | Limited | Strong | A-listware |
| Legacy embedded system modernization for an aging industrial product | Limited | Strong | A-listware |
| Fixed-price build | Limited | Limited | Both equally |
| Staff augmentation | Limited | Strong | A-listware |
Verdict: ByteSnap Design vs A-listware
ByteSnap Design (4.3/5) is the stronger overall choice for most Embedded Firmware projects. Wireless protocol breadth across ZigBee, LoRa, Wi-Fi, BLE, and GSM combined with in-house electronics design.
A-listware (3.9/5) is worth a look if you need legacy embedded system modernization for an aging industrial product. If your situation matches that, A-listware is a competitive option.
Related comparisons
ByteSnap Design vs A-listware FAQ
Is ByteSnap Design better than A-listware?
ByteSnap Design (4.3/5) scores higher overall, but "better" depends on your use case. ByteSnap Design's strongest advantage: wireless protocol coverage across five distinct standards is broader than most vendors bidding on a similar connected-device RFP. A-listware's strongest advantage: staff augmentation model gives an RFP evaluator direct control over embedded engineers working inside their own existing processes.
How do ByteSnap Design and A-listware differ in pricing?
ByteSnap Design uses project-based embedded and electronics engagements pricing. A-listware uses staff augmentation and dedicated remote team engagements pricing. Neither firm publishes a full rate card; a discovery call is required for project-specific quotes.
Which is better for enterprise: ByteSnap Design or A-listware?
A-listware is the larger team and typically the better enterprise-scale choice. For very large programmes, verify team size and compliance coverage directly with each service provider before shortlisting.
What are the main differences between ByteSnap Design and A-listware?
ByteSnap Design's primary differentiator is: wireless protocol breadth across ZigBee, LoRa, Wi-Fi, BLE, and GSM combined with in-house electronics design. A-listware's primary differentiator is: remote engineering team delivery model with embedded firmware and legacy modernization as named service lines. They also differ in team size (37 vs 51–200), minimum engagement (Not published vs Not published), and primary industries served (Consumer electronics, Industrial IoT vs Industrial IoT, Legacy hardware modernization).
Verify all details directly with each service provider before making a decision.