Many people know that cucumbers are vegetables that can be found everywhere, but few people know that this tender plant once caused an unexpected sensation in ancient Rome. Around 30 AD, the Roman Emperor Tiberius had health problems and his doctor required him to eat a cucumber every day. However, this requirement was not easy to achieve because the growing conditions of cucumbers are quite harsh. This prompted the Romans to invent artificial environments centered around cucumbers, an early form of greenhouse.
"In order to meet the needs of the emperor, the Romans first attempted to create a constant temperature growing environment."
In order to make cucumbers available during the winter, the design at the time was to use a movable vehicle to push the cucumbers out on sunny days and bring them indoors at night to keep them warm. The cucumbers were stored in specially constructed spaces with frames that used special fabrics or crystals to protect them from cold winds, an innovation that was significant and marked the origins of greenhouse technology.
Outside of Ancient Rome, the evolution of greenhouse technology also saw notable developments in other cultures. For example, the Korean Peninsula invented a warm greenhouse in the 15th century, combining it with the traditional heating system "stove". This was the earliest active greenhouse that achieved control over the environment.
“The concept of greenhouses is not limited to ancient Rome. As technology advances, designs have evolved to suit local needs.”
In the 17th century, this technology was introduced to the Netherlands and Britain along with trade. Greenhouses became popular and introduced more advanced designs and materials. They gradually became an important place for plant growth. During this period, some of the earliest "boiler greenhouses" were built at Chelsea Botanic Gardens in the UK, an important milestone in the awakening of modern greenhouse design thinking.
Greenhouses work on the scientific principle that sunlight enters through transparent materials and is absorbed by the ground and plants inside, causing the temperature to rise. This closed structure retains heat and prevents heat loss by convection, creating a stable growth environment.
“The core of greenhouse design is light transmission and heat retention to ensure that plants can grow healthily under various climatic conditions.”
Many modern greenhouses are equipped with high-tech equipment, including automatic control systems, to further regulate and manage the temperature, humidity and light inside. Such greenhouses are not limited to home use, and many commercial-scale greenhouses have also been developed to produce a variety of fruits and vegetables to meet market demand.
Looking to the future, greenhouse technology faces both challenges and opportunities. How to effectively manage resources, reduce energy consumption and optimize the growing environment will be the main task of every farmer and scientist. With the increasing awareness of environmental protection, many studies are also exploring how to use renewable energy to drive new greenhouses, and even new technologies such as carbon gain are beginning to be applied to promote plant growth.
"In the future, the design and application of greenhouses will increasingly rely on the development of technology to cope with the changing climate and growing food demand."
From the simple facilities of ancient Rome to today's high-tech agricultural greenhouses, greenhouse technology has become an indispensable part of agricultural production. So, how will we continue to innovate and improve in this area in the face of a green and balanced future?