Steering Powerful Digital Process Automation
The demand for mobility in our society is growing rapidly, leading to increased traffic congestion, longer travel times, and environmental concerns. Can smart traffic management systems provide a solution? We believe they can, but these systems must be innovative and leverage technology to effectively address mass mobility’s challenges. Our cutting-edge solutions offer the answers needed urgently.
Hansa Tek Netics (HTN) employs a unique Five-Step Innovation Process (FSIP) to tackle complex innovation tasks. Here’s how it works:
For a detailed understanding of this process, refer to HTN’s publication, “Business Intelligence in the Digital Age.” The Five-Step Innovation Process has been applied successfully to historical innovations, revealing its significance for addressing modern challenges.
Traditional process optimization often overlooks innovative, conflict-free solutions. HTN’s approach goes beyond mere optimization, leveraging digital technologies like AI, IoT, Digital Twin applications, and high-speed computing to unlock novel opportunities.
Urban roads and freeways face a common issue – insufficient lane capacities leading to traffic breakdowns. The solution lies not in physical expansions, which offer minimal improvements, but in smart applications of advanced technologies.
HTN-UTMS revolutionizes urban traffic management:
HTN-UTMS meets current needs and surpasses mobility requirements projected for 2030 and beyond. Its transparent design, exceptional performance, and scalability make it a game-changer for urban traffic management.
Revolutionizing the design of conflict-free traffic flow on freeways demands a departure from conventional thinking. HTN has embraced this challenge and introduced pioneering innovations to establish a sustainable freeway traffic management system that significantly enhances efficiency and effectiveness.
In a groundbreaking approach, we delved into the intricacies of human driving behavior on freeways. To achieve this, HTN harnessed an innovative traffic data acquisition system to meticulously capture and analyze traffic flow dynamics as influenced by human driving patterns. Through this meticulous process, HTN unearthed a novel and invaluable Key Performance Indicator (KPI) that provides a comprehensive insight into human driving habits, especially under congested traffic conditions.
A remarkable elasticity in traffic jam formation becomes evident when traffic reaches saturation levels. The accumulation of slow-moving traffic jams is disproportionately higher than the number of vehicles contributing to the initial traffic density surge. Notably, these sluggish traffic clusters inadvertently hinder the progress of vehicles, allowing those at the front to enjoy extensive intervehicle spacing and higher velocities. This phenomenon akin to signal lights in urban areas underscores the impact of slow-moving traffic jams on freeways.
Capitalizing on the insights gleaned from the human driving KPI and the density elasticity of traffic jams, HTN devised an ingenious strategy for a seamless transition from human-operated vehicles to autonomous driving, culminating in the creation of automated platoons. These efforts culminate with the HTN Freeway Traffic Management System (HTN-FTMS), a high-performance Multi-Lane Traffic Management System tailored for Platoons of Autonomous Vehicles. Comprehensive details of this design have been documented in a patent application submitted to the US-PTO.
For instance, envision a scenario where a constant density range prevails at speeds of up to 100 mph, resulting in a lane capacity of around 20,000 vehicles per hour (vph). When transitioning into a high-speed tunnel, the system adeptly shifts from constant density to a constant vehicle interval mode, maintaining a consistent lane capacity. This adjustment could enable velocities of 150 mph or even higher.
Conversely, heavy traffic loads and sluggish traffic jams often translate to lane capacities of less than 2,000 vph, with average speeds ranging from 10 to 20 mph. By eliminating slow-moving traffic jams altogether, HTN’s FTMS delivers substantial improvements. The combined enhancements in lane capacity and travel time could surge by up to an astounding 5,000% or more, especially in scenarios like high-speed tunnels, where the potential for elevated traffic velocities is virtually limitless. Such remarkable progress showcases the transformative impact of the HTN-FTMS on surface transportation productivity.
It was written by George J. Schlueter , Alliant International Business University California School of Management and Leadership
A healthy economy depends on the society’s productive implementation of new technologies and their applications. In contrast, innovation failures have far-reaching devastating consequences on the economy and the society’s wellbeing. As the digital transitions face the society with complex challenges and great benefits and risks, a structured approach is needed to maximize success and minimize risk. The author makes a fundamental contribution with his impactful Synergetic Five-Step Innovation Process. He proposes that a “Logical Gedanken-Modell” defines a perceived ideal solution and mends it into a well-functional system. Subsequently, the Gedanken-Modell and the perceived ideal conflict-free solution must be analyzed by way of “Logical-Mathematical Intelligence”. to assure that all variables of an innovation are properly considered to maximize success and prevent failure. The author explores the intelligences that underly major past inventions and traces the practiced processes with his synergetic five-step approach. He discovers that his five-step approach can be viewed as a natural law that is always present whether the inventor is aware of it or not. He observes that the inventor’s awareness of the five-step approach could have enhanced past inventions’ extraordinary potential and could have prevented fatal failures, their catastrophic consequences, and the society’s enormous financial loss and the loss of human lives. The book sheds new light on the risks involved in Columbus courageous voyage across the Atlantic Ocean, confirms Senan Molony’s hypothesis about the Titanic’s hidden misfortune, and assembles the unfortunate events leading to the extraordinary Chernobyl disaster that has been in the making for more than 20 years. Schlueter and his student teams applied Logical-Mathematical Intelligence to explain today’s traffic flow phenomena and to assess future mass mobility requirements. His vision for opportunities offered by digital technologies enabled him to create ideal conflict-free traffic management systems for freeways and county roads that can facilitate an effective mobility ecosystem.