Our Riyadh conversational AI builds Arabic-native systems that understand Saudi dialect, Arabizi, and code-switching.
Arabic NLU engine: (1) Our Arabic conversational AI uses a multi-layer understanding approach: dialect detection (automatically identifying whether the user is writing in MSA, Saudi dialect, or Arabizi — and processing accordingly; the system normalizes: all input to a canonical form for intent classification while preserving the original for response generation), intent classification (mapping diverse Arabic expressions to business intents — understanding that "أبي أعرف رصيدي," "كم فلوسي," and "show me my balance" all mean the same thing; the model is trained on: Saudi-specific expressions, not just MSA), entity extraction (extracting: dates, amounts, names, and IDs from Arabic text — handling: Hijri and Gregorian dates, Arabic and Western numerals, and: Arabic names with variable transliteration), and context management (maintaining conversation context across multiple turns — understanding that "والتاني؟" after asking about one product means "and the second one?" — contextual reference resolution in Arabic).
WhatsApp-native design: (1) We build for WhatsApp as the primary channel: rich message types (using WhatsApp Business API capabilities: interactive buttons, list messages, product catalogs, and location sharing — not just plain text; structured interactions that guide the user through flows without typing), media handling (processing: voice messages in Arabic, document photos for verification, and: location pins for service delivery — Saudi users send voice messages frequently; the bot must transcribe and understand Arabic voice), session management (managing conversations that may span hours or days — a government application started in the morning, continued after work, and completed the next day — the bot maintains context across sessions), and handoff to human (seamless transfer to a human agent when: the bot cannot resolve the issue, the user requests human assistance, or: the conversation involves sensitive information requiring human judgment — with full context transferred to the agent).
Voice AI: (1) For IVR and voice assistant applications: Arabic ASR (automatic speech recognition tuned for Saudi Arabic — trained on: Saudi speakers with Riyadh accent, handling: the specific phonetic patterns that differ from MSA pronunciation), natural conversation (the voice bot engages in natural Arabic conversation — not rigid menu-driven IVR; the caller states their need in their own words, and the bot understands and responds), and emotion detection (detecting: caller frustration, urgency, or confusion — escalating to human agents when the caller shows signs of dissatisfaction with the automated system).
Implementation: (1) Our conversational AI development follows: use case prioritization (identifying the 10-20 most frequent citizen/customer interactions — the conversations that represent 80% of volume but only 20% of complexity; automating these first delivers: maximum impact with minimum risk), conversation design (designing conversation flows in Arabic — not translated from English; the conversation patterns, politeness conventions, and: information-gathering sequences reflect Saudi Arabic communication norms), training data (collecting and annotating: Arabic training data from the client's actual historical interactions — chat logs, call transcripts, and email records; augmented with: synthetically generated variations covering: dialect differences, Arabizi, and code-switching), testing with native speakers (every conversational AI tested by: native Saudi Arabic speakers who interact naturally — not reading scripts; testing reveals: the real-world language variations that training data may have missed), and continuous improvement (post-launch: monitoring conversation logs, identifying: failed intents and unrecognized expressions, and: continuously expanding the bot's Arabic language understanding).