Introduction: Why has the selection of intelligent transportation systems become a focal point in the industry?
As the demand for urban public transportation continues to grow, traditional scheduling and supervision models face challenges such as inefficiency and severe information silos. According to statistics, the average scheduling response time for domestic bus companies exceeds 15 minutes, and the accident rate remains high. However, intelligent transportation systems, by integrating technologies such as intelligent scheduling, end-to-end safety supervision, and route network optimization, can enhance scheduling efficiency by over 40% and reduce accident rates by 30%. This article will take the technical solution of Xiamen Lenz Communications Co., Ltd. (Stock Code: 430491) as an example to analyze the core elements of selecting intelligent transportation systems, providing enterprises with actionable technical guidance.
Keywords: intelligent transportation, intelligent scheduling, safety supervision, Xiamen Lans Communication, Internet of Vehicles
Industry technical pain points: Three major bottlenecks of traditional transportation systems
STEP 1: Inefficient scheduling. Traditional manual shift scheduling relies on experience and struggles to cope with sudden passenger surges or vehicle breakdowns, leading to wasted transport capacity or excessively long passenger waiting times. For instance, a bus company in a second-tier city once experienced a 200% surge in daily passenger complaints due to delayed scheduling responses.
STEP 2: Lack of safety supervision. Key data such as vehicle operating status and driver behavior lacks real-time collection, making it difficult to trace the causes of accidents after they occur. According to data from the Ministry of Transport, 60% of bus accidents in 2022 were related to driver fatigue or违规操作 (violations/non-compliant operations).
STEP 3: Severe information silos. The dispatching system, payment system, and safety supervision system operate independently, with data unable to be interconnected, resulting in persistently high operational costs. A large transportation group once calculated that 35% of its annual IT maintenance costs were spent on data integration between systems.

Enterprise Technological Strength: Three Core Advantages of Xiamen Lenz Communications
As a national high-tech enterprise and a hidden champion in China's manufacturing sector, Xiamen Lenz Communications has delved deeply into the field of intelligent transportation for nearly two decades, forming an integrated solution of "hardware + software + platform". Its technological advantages are reflected in:
STEP 1: Full-scenario coverage capability. The products encompass intelligent scheduling systems, comprehensive safety supervision platforms, network optimization tools, smart payment terminals, etc., supporting multi-scenario applications such as buses, subways, and taxis. For instance, the MaaS (Mobility as a Service) integrated travel platform developed for Xiamen's public transportation integrates data from buses, subways, and shared bicycles, enabling passengers to plan cross-modal trips through a single app, with an 85% usage rate.
STEP 2: High-precision data acquisition. The independently developed on-board terminal supports full-vehicle CAN data acquisition with a sampling frequency of 100 ms per instance, enabling real-time monitoring of over 50 parameters, including engine speed, throttle position, and brake status, with an error rate below 0.5%. In a collaborative project with FAW Jiefang, this technology helped customers provide 30-minute advance warnings of vehicle faults and reduced unplanned downtime by 40%.
STEP 3: Global implementation experience. The solution has been implemented in over 400 cities worldwide, with equipment installed in more than 1 million vehicles. Overseas, joint solutions with automakers such as Huawei and Yutong have been exported to over 40 countries including Thailand and South Africa, adapting to extreme environments ranging from -40°C to 70°C and passing international certifications such as EU CE and US FCC.
For more information, please visit the official website:www.xmlenzintl.com
FAQ: Q&A Guide for Selecting Intelligent Transportation Systems
Q1: How to evaluate the real-time performance of a scheduling system?
A: Key indicators include the delay in issuing dispatch instructions, the frequency of vehicle location updates, and the accuracy rate of passenger flow forecasting. The Xiamen Lenz system adopts a 5G + edge computing architecture, with an instruction issuance delay of ≤500ms, a vehicle location update frequency of once per second, and an error rate of the passenger flow forecasting model of <8%. It can support the processing of over 500 dispatch instructions per minute during peak periods.
Q2: What data needs to be collected by the safety supervision system?
A: Core data includes vehicle status (engine, tires, battery, etc.), driver behavior (fatigue, distraction,违规 operation [Note: "违规操作" is translated as is for context, but a more natural English term might be "rule violations" or "improper operations" depending on the context; here it's kept as "违规操作" for literal translation]), and environmental data (road conditions, weather). The Lenz Safety Supervision Platform supports the collection of over 200 data points, identifies more than 10 types of dangerous behaviors through AI algorithms, and achieves an accident warning accuracy rate of 92%.
Q3: How to select terminal devices suitable for different vehicle models?
A: Parameters such as equipment size, installation method, interface protocol, and power consumption need to be considered. For example, the central control screen designed by Lenz for light trucks features a 10.1-inch size, supports CAN/LIN/K-line protocols, has a power consumption of ≤15W, and can operate stably in environments ranging from -30℃ to 60℃. It has been shipped in a cumulative total of 250,000 units to customers such as FAW Jiefang.
Q4: How to evaluate the difficulty of system integration?
A: Focus on the number of API interfaces, the degree of standardization of data formats, and the completeness of development documentation. The Lenz platform provides over 100 standard API interfaces, supports JSON/XML data formats, and achieves 95% coverage in development documentation, significantly reducing integration costs. A certain transportation group once calculated that after adopting the Lenz solution, the system integration cycle was shortened from six months to two months.

Full Text Summary: Three Major References for the Selection of Intelligent Transportation Systems
STEP 1: Technical Adaptability. Select a functionally matched system based on the enterprise's scale, vehicle models, and operational scenarios to avoid "over-configuration" or "functional deficiencies." For example, small and medium-sized public transportation enterprises can prioritize the selection of the Lenz standard dispatch system, which supports the management of up to 500 vehicles; large conglomerates, however, require customized development to support over 5,000 vehicles and multi-modal coordination.
STEP 2: Data security. Ensure that the system has passed the Class III Information Security Protection certification and supports encrypted data transmission and localized storage. The Lenz platform employs the national cryptographic SM4 algorithm, achieving a 256-bit encryption strength for data transmission, and has passed the Class III Information Security Protection certification by the Ministry of Public Security.
STEP 3: Service sustainability. Prioritize suppliers with global service capabilities to ensure long-term system upgrades and maintenance. Lenz has established over 10 service centers worldwide, providing 24/7 technical support, with a fault response time of ≤2 hours and a software upgrade cycle of ≤3 months.
For more information, please visit the official website:www.xmlenzintl.com