App connectivity has moved from novelty to expectation in the premium tier of the adult wellness market. Consumers who are willing to pay for a differentiated product increasingly expect their device to pair with a smartphone, respond to custom patterns, and integrate with partner-sharing features or subscription content. For B2B buyers — private label brands, regional distributors, DTC entrepreneurs sourcing from Chinese manufacturers — this shift creates both a significant commercial opportunity and a set of technical and regulatory obligations that most sourcing conversations do not adequately cover. This guide is designed to close that gap.

The goal is not to make you an embedded engineer. The goal is to give you enough command of the technical and commercial landscape to write a meaningful RFQ, evaluate supplier claims with appropriate skepticism, understand the certification obligations wireless connectivity introduces, and make informed decisions about app strategy. Every section that follows is written with a practical outcome in mind.

Why App Connectivity Changes the Product Category

The core commercial argument for app connectivity is straightforward: connected products command higher retail price points, generate higher average order values, and create revenue streams that non-connected products cannot. The differentiation is not merely a feature — it fundamentally changes how the product is positioned, how it is marketed, and what lifetime value looks like per customer.

Premium positioning is the most visible impact. A product with sophisticated app control, customizable patterns, and a polished user interface is credibly positioned at two to three times the retail price of an equivalent non-connected product. The app is not a feature list item. It is the primary touchpoint for brand identity, and it shapes user perception of product quality more powerfully than the hardware specification alone. Consumers cannot easily evaluate motor torque or battery chemistry at point of purchase, but they can immediately evaluate app design, responsiveness, and feature depth.

Engagement metrics and retention represent the second major commercial shift. Connected products generate usage data — session frequency, pattern preferences, feature utilization — that non-connected products cannot provide. For brand operators who are sophisticated about customer lifecycle management, this data is foundational for email strategy, product development roadmaps, and loyalty programming. A customer who uses your app regularly is a customer you have ongoing access to through a channel you control.

Subscription revenue is the third and most financially significant implication. App connectivity enables content subscription models: premium pattern libraries, guided experience content, partner synchronization features, and third-party content integrations. These are recurring revenue streams that are structurally impossible without a connected product. For brands building equity and planning for eventual exit multiples, recurring revenue fundamentally changes the financial profile of the business.

The practical implication for B2B buyers is that specifying an app-connected product is not simply a hardware decision. It is a strategic decision that carries downstream obligations around app development, certification, data privacy, and ongoing software maintenance. Buyers who treat app connectivity as a checkbox feature without understanding the full stack typically encounter problems at certification, at app store submission, or post-launch when firmware update requirements emerge.

BLE Architecture Basics: How Device and App Communicate

Bluetooth Low Energy — universally referred to as BLE — is the dominant wireless protocol for short-range, low-power consumer device connectivity. It is the protocol used by virtually all app-connected adult wellness products currently in production. Understanding its architecture at a conceptual level is essential for evaluating what your factory is actually delivering.

BLE operates in the 2.4 GHz ISM band and is designed for intermittent, low-data-rate communication between a central device (your smartphone) and a peripheral device (your product). Unlike Classic Bluetooth, BLE is optimized for battery efficiency at the cost of data throughput — which is an acceptable trade-off for wellness applications where the data being transmitted is control commands and status responses, not audio or video streams.

GATT Profiles: The Data Structure of BLE Communication

The Generic Attribute Profile, or GATT, defines how BLE devices structure and exchange data. Every BLE device exposes a hierarchy of Services and Characteristics. A Service is a logical grouping of related functionality. A Characteristic is a specific data value within a service — it has a UUID (unique identifier), a data type, and permissions that define whether it can be read, written, or notified.

Standard GATT profiles are published specifications from the Bluetooth Special Interest Group (Bluetooth SIG) that define services and characteristics for common device categories — heart rate monitors, battery level reporting, device information. These profiles are interoperable: any device and app that implement a standard profile correctly can communicate without proprietary knowledge.

Custom protocols are what most adult wellness product manufacturers actually implement. Rather than mapping device functionality to published standard profiles, the factory defines proprietary UUIDs for their services and characteristics, and uses a private data encoding format for commands and responses. The app must implement the factory's specific protocol to communicate with the device.

For B2B buyers, the distinction matters for two reasons. First, a device with a fully documented custom protocol means you are dependent on that factory for protocol knowledge — if you want to change manufacturers later, you need to reverse-engineer the protocol or negotiate IP transfer. Second, custom protocols are not inherently worse than standard profiles. They are often more capable for the specific application. The critical requirement is documentation: you need complete, accurate GATT service and characteristic specifications before you can evaluate the factory's implementation or engage an independent app developer.

Connection Parameters That Matter

BLE connection parameters directly affect the user experience of your app-controlled product. Connection interval determines how frequently the central device polls the peripheral for updates — lower intervals mean more responsive control at the cost of higher power consumption. The practical range for wellness applications is 15 to 100 milliseconds. Supervision timeout determines how long the connection is maintained without successful communication before the link is considered dropped. MTU (Maximum Transmission Unit) determines the maximum packet size and therefore how much data can be exchanged per connection event.

These parameters are negotiated at connection establishment. Your factory should be able to specify the default and negotiable ranges for each, and your testing plan should verify that the device performs at the agreed parameters in real-world conditions including the presence of other 2.4 GHz devices (WiFi routers, microwave ovens) that operate in the same frequency band.

White-Label App Options: Comparing the Three Models

App strategy is one of the most consequential decisions in a connected product launch, and it is frequently underspecified in B2B sourcing conversations. There are three distinct models available to private label buyers, each with different cost profiles, time-to-market implications, and long-term trade-offs.

Model 1: Factory-Provided SDK Integration

Many manufacturers — including platform companies like Lovense and MagicMotion, and factory-level ODM suppliers — offer an SDK (Software Development Kit) that handles all BLE communication logic and exposes a higher-level API for app developers. The buyer engages an independent mobile developer who integrates the SDK into a custom-branded app. The BLE protocol, connection management, firmware update delivery, and device control logic are all handled by the SDK. The app developer builds the UI, brand experience, and any additional features on top.

The advantages are significant: dramatically reduced development complexity, faster time to market, and the benefit of a BLE implementation that has already been tested against the specific hardware. The disadvantages are equally real: you are dependent on the SDK provider for protocol updates and bug fixes, the SDK license terms may restrict what features you can build or how you can monetize, and you inherit any limitations or design decisions baked into the SDK architecture.

Model 2: Fully Custom App with Raw BLE Protocol

The buyer obtains complete GATT profile documentation from the factory and engages a mobile development team to build the app from scratch, implementing the BLE protocol directly. This model provides maximum control over feature set, UX design, data architecture, and monetization. It is the correct choice for brands with serious long-term ambitions and the budget to support it.

The cost and timeline implications are substantial. A high-quality custom BLE wellness app for both iOS and Android, built properly with connection state management, background operation, firmware update support, and age verification, typically requires six to twelve months of development time and $80,000 to $200,000 in development cost at professional agency rates, depending on feature scope. Ongoing maintenance, including OS compatibility updates for each annual iOS and Android release cycle, adds $20,000 to $50,000 per year.

Model 3: White-Label Platform

White-label app platforms provide a pre-built application framework that can be rebranded and configured for a specific product and company. The buyer's brand identity, color scheme, and product catalog are applied to an existing app architecture. Some platforms allow limited feature customization; others are fixed in their feature set and simply offer branding customization.

This model offers the lowest cost and fastest time to market but the least differentiation. If multiple brands are using the same white-label platform, sophisticated users may recognize the shared codebase. The platform provider holds all technical leverage. And platform dependency creates risk if the provider discontinues the service, raises prices, or changes terms.

Comparison Table

What to Specify in Your RFQ

Most RFQs for connected adult wellness products specify "Bluetooth" without further detail. This is insufficient. The BLE specification has evolved significantly across versions, and the version your factory implements has real implications for range, throughput, and coexistence performance. Here is what a technically complete RFQ should specify.

BLE Version

BLE 4.2 introduced 128-bit AES encryption at the link layer, increased data packet length (up to 251 bytes versus 27 bytes in prior versions), and improved privacy features through resolvable private addresses. It remains adequate for basic wellness applications but represents the minimum acceptable version for any product launched from 2024 onward.

BLE 5.0 doubled throughput in the high-speed mode (2 Mbps PHY), quadrupled range in the long-range mode (Coded PHY), and increased advertising packet capacity from 31 to 255 bytes. The extended advertising data capacity is particularly useful for app discovery and device identification workflows. BLE 5.0 is the appropriate baseline specification for products in the mid-to-premium tier.

BLE 5.2 introduced LE Audio (not relevant for wellness applications), isochronous channels, and the Enhanced Attribute Protocol (EATT), which enables parallel GATT transactions and meaningfully improves throughput for applications with multiple simultaneous characteristic operations. BLE 5.2 is the appropriate specification for products requiring simultaneous multi-device connection or complex real-time control.

Range Specification

Range is one of the most frequently misrepresented BLE specifications. Factory-stated range figures are typically measured in free space (open air, no obstacles, no interference) at maximum transmit power. Real-world indoor range through walls, with household WiFi operating in the same 2.4 GHz band, may be 30 to 50 percent of the free-space figure.

Your RFQ should specify range requirements as a practical indoor figure — for example, "10 meters minimum through one interior wall at 2.4 GHz WiFi coexistence conditions" — not as a free-space maximum. If your use case involves remote partner control over the internet (app-to-server-to-app, not direct BLE), the relevant range requirement is only the local device-to-phone range, which is typically less than 3 meters and easily achievable with any modern BLE chip.

Latency Requirements

For responsive control — pattern changes, intensity adjustment — end-to-end command latency from app input to device response should be below 100 milliseconds for a good user experience and below 50 milliseconds for premium positioning. Specify maximum acceptable latency as part of your RFQ and include it as a production QC acceptance criterion.

Simultaneous Connection Count

Some use cases require a single device to maintain BLE connections with multiple phones simultaneously — for example, partner control scenarios where both users connect directly to the device. This is technically feasible in BLE 5.x but requires explicit firmware support and imposes additional power and processing overhead. Specify whether multi-central connection is required, and if so, the maximum number of simultaneous central connections.

Additional RFQ line items for BLE-connected products should include: chip vendor and model (Nordic nRF52 series and Qualcomm CSR/QCC series are common; chip vendor affects SDK availability and long-term supply chain), TX power (output power in dBm at the antenna port), and whether the BLE implementation has been tested for Bluetooth SIG qualification — which is required for products that use the Bluetooth name or logo in marketing.

Additional Certifications Triggered by BLE

Adding BLE to a product triggers wireless device certification requirements in every market where the product will be sold. These certifications are in addition to — not a replacement for — any electrical safety certifications the product already requires. Buyers who source a connected product without understanding certification obligations routinely encounter customs holds, retailer compliance rejections, and marketplace listing removals.

FCC (United States)

Products containing intentional radio transmitters sold or marketed in the United States must comply with FCC Part 15 rules and typically require either FCC Certification (previously called FCC ID) or the Supplier's Declaration of Conformity (SDoC), depending on the device category and power level. BLE devices in consumer products typically require FCC Certification, which involves testing at an FCC-recognized accredited laboratory and registration of the device with the FCC. The FCC ID must be displayed on the product, either physically or electronically. Budget $2,000 to $5,000 for FCC testing and certification, and allow six to ten weeks for the process.

CE RED Directive (European Union and UK)

Products with radio equipment sold in the EU must comply with the Radio Equipment Directive (RED), Directive 2014/53/EU. The RED requires conformity assessment against radio, electromagnetic compatibility, and electrical safety requirements. For BLE devices, this includes testing under ETSI EN 300 328 (2.4 GHz wideband transmissions) and relevant safety standards. A Declaration of Conformity must be prepared and technical documentation retained. Budget $3,000 to $8,000 for RED testing and documentation. UK PSTI and UKCA marking requirements apply separately post-Brexit.

MIC/TELEC (Japan)

Japan requires wireless devices to be certified by the Ministry of Internal Affairs and Communications (MIC), with testing conducted by a TELEC-designated testing organization. The certification is commonly referred to as TELEC certification. The process involves RF testing and registration. Budget $2,000 to $4,000 and allow eight to fourteen weeks. Japan is a significant market for premium adult wellness products and TELEC certification is non-negotiable for legal sale.

SRRC (China)

Wireless devices sold or used in China require Type Approval from the State Radio Regulation of China (SRRC). BLE falls under the short-range device category. SRRC approval is required even for products manufactured in China — manufacturing and sale approval are separate regulatory requirements. Budget $1,500 to $3,000 for SRRC testing.

IC (Canada)

Innovation, Science and Economic Development Canada (ISED) administers radio equipment certification for Canada, commonly referred to as IC certification. The requirements closely parallel FCC requirements, and many laboratories conduct FCC and IC testing simultaneously from the same test data, reducing incremental cost. Budget an additional $500 to $1,500 incremental to FCC if combining testing. The IC identification number must appear on the product.

An important practical note: if your factory has already obtained any of these certifications on a module level — that is, the BLE radio module itself is certified — you may benefit from modular certification, where the host product inherits some or all of the module's certification. Verify with your factory and your certification lab whether modular certification applies to your specific product configuration, as this can materially reduce both cost and timeline.

App Store Policies for Adult Wellness Apps

Both Apple App Store and Google Play have policies that directly affect adult wellness app submissions. Misunderstanding these policies is one of the most common reasons for launch delays, and in some cases, permanent rejection. The policies are not static — Apple in particular has evolved its position on adult wellness apps over the past several years, and the current framework requires careful navigation.

Apple App Store

Apple's App Store Review Guidelines (Section 1.1) prohibit pornographic content but explicitly permit apps that provide "educational or informational content about sexual health" and utility apps that serve legitimate wellness purposes. Apps for controlling personal wellness devices are generally approved under the health and fitness or lifestyle category, provided they do not contain explicit visual content, do not promote sexual services, and implement appropriate age-gating.

Age gating on the App Store means that your app listing must be rated 17+ (Adults Only), and users must acknowledge an age verification prompt before accessing age-restricted content within the app. Apple does not require biometric or document-based age verification for app functionality — a date of birth entry or terms acceptance acknowledging age is typically sufficient for app store compliance purposes (though local law may impose stricter requirements).

Apple developer accounts for adult wellness apps must be enrolled under a business entity rather than an individual account. Apple has the right to request additional information about the app's intended use, and some categories of sexual wellness content may require an entitlement — a specific permission granted by Apple after review. The review process for adult wellness apps is typically more thorough and may take longer than standard consumer app reviews.

Critically, Apple's guidelines prohibit apps from accessing the App Store solely as a companion to a hardware device that enables sexual activity in a manner that Apple determines is primarily pornographic in nature. The positioning of your app matters for review: an app framed as a wellness, intimacy, or relationship enhancement tool is treated differently from one that leans into explicit sexual framing in its metadata, screenshots, or app description.

Google Play

Google Play's policies are broadly similar but implemented through a different mechanism. Google requires apps with mature content to self-declare this in the Content Rating questionnaire, which generates an age rating for each territory. Apps controlling adult wellness devices are typically rated PEGI 18 / Adults Only across major markets.

Google Play allows more flexibility in the review process but has tightened enforcement over time. Apps must not display sexually explicit content in screenshots, feature graphics, or app descriptions visible to general users on the Play Store listing. Explicit content, if any exists within the app, must be behind a user-acknowledged age gate and must comply with Play's developer program policies.

Developer account considerations for both platforms: use a business entity with a proper privacy policy URL, terms of service, and support contact before submitting. Both Apple and Google will reject apps with incomplete or missing privacy policies. The privacy policy must accurately reflect what data the app collects — which brings us directly to the next section.

Data Privacy Obligations: GDPR and CCPA

Connected adult wellness devices collect data that falls into the most sensitive category recognized by privacy law. In EU jurisdictions, data about health and sexual life is classified as a Special Category of Personal Data under GDPR Article 9, subject to the highest level of protection and processing restrictions. In California, CCPA and its amendment CPRA recognize sensitive personal information categories that include data about sexual orientation and health, with enhanced consumer rights and processing restrictions.

What Data Is Collected

A typical connected wellness app collects some or all of the following: device identifier (Bluetooth MAC address or derived UUID), usage session timestamps and durations, intensity and pattern settings used during sessions, account information (email address, possibly date of birth for age verification), in-app preferences, and in some implementations, location data or device telemetry. Some platforms add sexual preference or relationship status data if those fields are present in user profiles.

Under GDPR, processing any of this data for EU users requires a lawful basis. For wellness apps, this is typically explicit consent (Article 6(1)(a) and Article 9(2)(a) for special category data). Consent must be freely given, specific, informed, and unambiguous. Pre-ticked checkboxes do not constitute consent. Users must be able to withdraw consent as easily as they gave it.

Consent Requirements and Privacy Policy Obligations

Your privacy policy must describe in plain language: what data is collected, why it is collected, how long it is retained, with whom it is shared (including third-party SDKs, analytics services, cloud infrastructure providers), where it is processed (data residency is a concern under GDPR for transfers outside the EU), and what rights users have (access, rectification, erasure, portability, objection).

Under CCPA, California residents must be informed of their right to know what personal information is collected and shared, the right to delete, and the right to opt out of sale of personal information. If your app uses advertising SDKs or analytics platforms that share data with third parties, you may be subject to "sale" restrictions under CCPA even if you do not receive direct payment for the data.

A practical risk note: the most significant privacy enforcement actions in the connected device space have involved the sharing of sensitive health and sexual activity data with advertising networks without adequate disclosure or consent. Ensure that any third-party SDKs embedded in your app — analytics, attribution, crash reporting, advertising — are documented in your privacy policy, and that their data processing practices are compatible with your consent obligations. This is not a theoretical risk. Several companies in adjacent wellness categories have faced regulatory investigations and reputational damage from undisclosed data sharing.

OTA Firmware Updates: Architecture and Strategic Importance

Over-the-air firmware update capability — OTA — is frequently treated as a nice-to-have feature in connected product RFQs. It should be treated as a mandatory capability. Here is why.

BLE firmware bugs are common, even from experienced manufacturers. Connection stability issues, pairing failures on specific phone models, power management defects that reduce battery life, and compatibility problems introduced by iOS and Android OS updates are all real and recurring issues. Without OTA capability, the only remediation available when these issues emerge post-launch is a product recall or a factory service program — both of which are enormously expensive and brand-damaging.

With OTA capability, firmware defects can typically be patched within weeks of discovery, with the update delivered silently to connected devices through the app. This capability also enables post-launch feature additions, which create re-engagement opportunities and support premium content subscription models.

OTA Architecture Considerations

BLE OTA updates are typically implemented using the Device Firmware Update (DFU) protocol defined by the chip vendor — Nordic Semiconductor's DFU is the most widely implemented — or using a proprietary protocol defined by the manufacturer. The critical architectural requirements are: secure bootloader that validates firmware signature before applying updates (preventing malicious firmware injection), rollback protection to prevent downgrade to known-vulnerable versions, fail-safe recovery that ensures the device remains functional if an update transfer is interrupted, and update size compatibility with available flash memory on the device.

From a supply chain perspective, your RFQ should specify: whether OTA is supported, which DFU protocol is used, how firmware updates are distributed (app-side delivery versus cloud-served delivery), whether the OTA architecture includes signature verification, and what the factory's process is for delivering firmware update packages to you for distribution.

Production Testing for BLE Devices

Adding BLE to a product substantially increases production QC complexity. RF testing requires specialized equipment and test procedures that are not part of standard production QC for non-connected devices. Buyers who do not specify BLE-specific QC requirements leave a significant gap in their quality program.

RF Testing in Production

Production RF testing typically uses an RF tester to verify transmit power (output power in dBm), frequency accuracy, and modulation characteristics for each unit. This requires either a conducted test (RF probe directly to the antenna port) or a radiated test (device transmitting in a calibrated RF environment). Conducted testing is faster and more suitable for high-volume production lines; radiated testing is more representative of real-world performance but slower. Specify which test method your factory uses and what the acceptance criteria are.

Protocol Conformance Testing

Protocol conformance testing verifies that the BLE implementation behaves according to the Bluetooth Core Specification — that advertising intervals are correct, that connection parameter negotiation works properly, that the GATT server responds correctly to standard requests. This testing is typically performed on golden samples during DVT (Design Validation Testing) rather than on every production unit, but deviations from the DVT build should trigger re-testing.

Range Testing and Coexistence Testing

Range testing should be performed in a representative indoor environment with active 2.4 GHz WiFi operating on nearby channels. The acceptance criterion should be the practical indoor range figure specified in your product requirements, not the free-space maximum. Coexistence testing — verifying BLE connection stability in the presence of other 2.4 GHz traffic — is often omitted from factory QC programs and is worth specifying explicitly if range and stability are important to your product experience.

App Compatibility Testing

Production QC should include functional testing of the BLE connection from the production firmware to the shipping version of your app on both iOS and Android. Even when firmware and app versions are stable, production line variations — antenna placement tolerances, solder joint quality affecting RF grounding — can introduce per-unit connection performance variations. A functional app pairing test on each production unit is the minimum reasonable standard.

Pricing Impact: BOM Cost Delta and Total Cost of Ownership

Buyers who have not sourced connected products before often underestimate the full cost structure. The BLE chip itself is only one component of the total cost picture.

BOM Cost Delta for BLE vs Non-BLE

Adding BLE to a product that did not previously have it increases the bill of materials by the cost of the BLE radio module or SoC (System on Chip), antenna (internal PCB trace antenna or external ceramic or chip antenna), and any additional passive components required for the RF circuit. At production volumes of 5,000 to 20,000 units, BLE SoC costs typically add $1.50 to $4.00 per unit to the BOM, depending on the chip vendor, BLE version, and whether additional microcontroller capability is consolidated onto the BLE SoC. At higher volumes (50,000+), this delta compresses toward $0.80 to $2.00 per unit.

Additional one-time NRE (Non-Recurring Engineering) costs for BLE integration in an ODM context — PCB redesign, firmware development, antenna optimization, and initial certification — typically range from $8,000 to $25,000 depending on the complexity of the base product and whether the factory has an existing BLE platform they are adapting versus building from a clean sheet.

Certification Costs

Plan for $8,000 to $20,000 in total certification costs for a multi-market launch covering US (FCC), EU (RED/CE), and one Asia-Pacific market (TELEC or SRRC). Certification costs are one-time per model, but each hardware revision that affects the RF circuit requires re-testing. App development costs, as discussed in the app strategy section, range from $5,000 for a white-label platform setup to $200,000 for a custom build.

Ongoing Costs

The most consistently underestimated cost category is ongoing software maintenance. iOS and Android each release major OS updates annually, and each release has the potential to introduce changes that affect BLE behavior, background app execution policies, or other app functionality. Each annual OS cycle requires app testing against the new OS versions and potentially development work to maintain compatibility. Budget a minimum of $15,000 per year for maintenance of an SDK-integrated app, more for a fully custom application. Failure to maintain the app results in user-facing compatibility failures and negative reviews — which are visible to every prospective customer who evaluates your app before purchase.

Evokomoribi BLE-Enabled Product Lines

Evokomoribi's BLE-enabled product lines are built on Nordic Semiconductor nRF52 series chipsets — a well-supported platform with extensive SDK documentation, an active developer ecosystem, and a strong long-term supply trajectory. The nRF52 family supports BLE 5.x and provides integrated flash storage for OTA firmware update capability on all current BLE models.

Available BLE-enabled product categories include wearable stimulation devices with form factors appropriate for discreet carry and wireless partner control, insertable vibration devices with whisper-mode operation and multi-pattern firmware, couples' devices engineered for simultaneous dual-user connection scenarios, and therapeutic pelvic floor devices with biofeedback data logging capability. Each category is available at multiple price tiers from mid-range ODM configurations to fully customized OEM builds.

SDK documentation provided to qualified B2B buyers includes complete GATT profile specifications with service and characteristic UUIDs, data encoding formats, command and response tables, and connection parameter recommendations. For buyers pursuing the SDK integration app strategy, Evokomoribi maintains a reference implementation for both iOS (Swift) and Android (Kotlin) that demonstrates correct BLE connection management, pattern control, OTA update initiation, and background connection handling.

Custom firmware options available on BLE-enabled models include: modified default pattern libraries, custom intensity curve profiles, branded device naming (the device name broadcast in BLE advertising packets is configurable), and custom OTA delivery endpoint configuration for buyers who maintain their own firmware distribution infrastructure. Firmware modifications are typically available with a minimum order quantity of 500 units and an NRE fee that varies by scope.

For buyers requiring pre-certified BLE modules, Evokomoribi offers several models built on FCC- and CE-RED-certified radio modules, which can simplify the path to market for US and EU launches. The applicable modular certification documentation is available as part of the technical package provided to qualified buyers, and Evokomoribi's compliance team can provide guidance on which additional host device testing is required even when modular certification applies.

To receive SDK documentation, a sample unit for development integration testing, or certification documentation for a specific model, contact Evokomoribi's B2B development team through the inquiry form. Qualified buyers — brands with established market presence or serious new market entrants with a defined launch plan — receive access to technical documentation under NDA at no cost. Evokomoribi's standard B2B engagement process for BLE-connected product development is designed to move from initial inquiry to production-ready specification in eight to sixteen weeks, depending on the degree of customization required.

App connectivity is not a feature you add to a product. It is a platform you build — one that encompasses hardware, firmware, software, certification, privacy compliance, and ongoing maintenance. Buyers who understand the full stack make better sourcing decisions, launch more successful products, and build brands with more durable competitive positions. Evokomoribi's role is to be a technically capable manufacturing partner through every layer of that stack.