দীর্ঘস্থায়ী AI সার্ভিং হ্যারনেস ডিজাইন করা

এটি ফিডে পাওয়া অংশবিশেষ। এটি সংক্ষিপ্ত বা প্রকাশকের মূল ভাষায় হতে পারে।

The next competitive advantage in enterprise AI has less to do with which model you choose than with what you build around it. That’s an important shift. For the past several years, much of the AI conversation has centered on model capability: bigger models, better reasoning, larger context windows, higher benchmark scores. Those advances have been extraordinary. But as AI moves from experimentation to production, the question facing enterprise leaders has changed—it’s no longer, “what can the model do?”—it’s now, “Can we deliver that intelligence reliably, economically, and at scale?” Increasingly, the answer depends on the serving harness—the engineering system surrounding the model, including the architecture, memory management, scheduling, and optimization decisions that determine how efficiently model intelligence becomes a production capability. For technical executives, that changes where AI investment should go—and what they should demand from the architecture supporting it. Start with the workload, not the model There is no universally “best” model or AI architecture. There is only the right solution for the business problem. A customer-facing assistant optimized for fast responses has fundamentally different requirements from a document-processing pipeline that can run overnight. An internal knowledge application and a high-volume customer service platform may use the same foundation model but require very different serving architectures. The workload defines the constraints. The constraints should determine the architecture. That sounds simple, but it runs counter to the way many organizations have approached early AI deployments. During a proof of concept, model accuracy naturally dominates the discussion. Production introduces constraints that are much easier to ignore when only a handful of users are involved: latency, concurrency, memory pressure, GPU utilization, infrastructure cost, and unpredictable traffic. A model that produces marginall