7 results about "Artificial environment" patented technology

Embodiments relate to smart deployment of a honeypot environment on personal devices for security. An aspect includes receiving an authentication request to access a device and determining that the authentication request is to initiate a security system on the device. An aspect includes, in response to initiating the security system, executing an artificial environment, appearing as a real environment, for presentation on the device, wherein the artificial environment is presented to exclude sensitive information of the real environment.

The utility model discloses an experiment table for researching thermal performance of various floor radiant heating systems, and relates to the technical field of floor radiant heating experiments. Comprising an artificial environment chamber used for simulating an outdoor environment, a box body and a refrigeration compressor unit are arranged in the artificial environment chamber, a control cabinet is arranged outside the artificial environment chamber, and an experiment assembly is arranged in the box body; the box body comprises a bottom plate assembly, and the bottom plate assembly is detachably connected with a side plate assembly. According to the utility model, through the bottom plate assembly and the side plate assembly, rapid building can be carried out in an artificial environment room, determination can be carried out through the bottom plate assembly and the side plate assembly according to parameters such as pipeline layout, water supply temperature, system capacity and the like in the floor radiation heating system, and the performance of the floor radiation heating system is verified; therefore, the stability and the reliability of the system in actual operation are ensured.

This invention provides a method and system for fully automated environmental sample collection based on a robot platform, belonging to the field of data acquisition technology. The method includes: the robot platform receiving and parsing sampling task instructions; navigating to the target sampling environment for panoramic scanning and mapping according to task scheduling instructions; identifying multimodal risk features on the environmental point cloud map; fitting a global sampling path based on multiple environmental sample collection points; stitching together multiple adaptive standardized operation actions to obtain an automated operation sequence; and using the global sampling path and the automated operation sequence to drive the robot platform to automatically collect environmental samples. This solves the technical problems of cumbersome, inefficient, and poorly comparable data in existing manual environmental sample collection processes. It achieves fully automated sampling, efficient path planning, and standardized operation execution via a robot platform, improving sampling efficiency and data comparability.

The present application relates to a kind of edible fungi mobile intelligent artificial environment cultivation cabin, belong to edible fungi cultivation technical field, edible fungi mobile intelligent artificial environment cultivation cabin includes cabin body, culture rack, sliding plate, magnifying body, observation body and sliding piece, the culture rack is set in cabin body, for placing fungus bag, the sliding plate is vertically sliding and is set on culture rack, the magnifying body is set on sliding plate, the magnifying body and fungus bag on the same layer of culture rack one-to-one correspond, the magnifying body is used to form the magnified virtual image of corresponding position fungus bag, the observation body is set on sliding plate, for expanding field of view, to help operator observe the magnified virtual image formed at magnifying body, the sliding piece is set on culture rack, the sliding piece is used to drive sliding plate to slide.The present application has the advantages that it is convenient for staff to check the condition of each layer of fungus bag on culture rack, and improves the efficiency of inspection to some extent.

The invention relates to the technical field of medicinal breeding of special insects, in particular to a method for ecologically and cyclically domesticating high-quality maggot and a domesticated population thereof, and the method comprises the following steps: seed source acquisition and identification: acquiring chrysomyia megacephala adults, performing purebred identification and health detection, and pre-screening an initial seed source; hatching eggs of the obtained provenance in an artificial environment, feeding larvae of 1-3 years old, applying primary environmental stress, and screening individuals; putting imagoes into the natural environment after emergence of the individuals, and recovering spawning blocks; the recovered egg masses are hatched and fed with larvae of 1-3 years old, composite environmental stress is applied, and individuals with tolerance reaching the standard are screened out; after the individuals emerge adults, putting the adults into a complex natural environment, and recovering the spawn blocks; the recovered egg masses are hatched and fed with larvae of 1-3 years old, ultimate environmental stress is applied, and domesticated populations with solidified characters are obtained through screening. Through three-generation directional domestication, artificial stress, natural energizing and fresh fish waste utilization, the effects of pure maggot variety, strong stress resistance, high activity and stable breeding are achieved.

The invention relates to the technical field of boschniakia rossica planting, and particularly discloses a boschniakia rossica planting method which comprises the following steps: S1, seed photochemical synergistic germination induction, S2, artificial parasitic body combination, S3, parasitic body seedling hardening and seedling strengthening, S4, site selection and transplantation, S5, growth microenvironment intelligent regulation and control, S6, staged precise nutrition supply and S7, target harvesting and regeneration management. According to the boschniakia rossica planting method provided by the invention, a parasitic establishment process between the boschniakia rossica and the host alder is transferred from an uncontrollable field environment to a highly controllable artificial environment, so that the predictability, the stability and the efficiency of planting are fundamentally improved.

The invention discloses an open type office environment winter heating thermal disturbance identification and coalition game optimization method and system, and belongs to the technical field of artificial environment intelligent control. In order to solve the problems of energy consumption waste, heat comfort conflict, poor multi-unit configuration adaptability and the like caused by the fact that the use state of a PCS (Personal Comfort System for short) is unknowable and one or more office space winter hot air type heating units and the PCS are lack of collaboration in winter heating in an open office environment, the invention provides a hot air type heating unit for an office space. The method comprises the following steps of: acquiring temperature time sequence data of each micro-region through a distributed environment sensor, inverting a PCS opening state and a thermal independence coefficient by utilizing a thermal disturbance recognition algorithm, and clustering the micro-regions into three types of virtual alliances, namely a rich heat source, a poor heat source and a neutral virtual alliance based on the coefficient; in a multi-unit scene, temperature acquisition sub-region division and alliance-unit association mapping are additionally carried out to construct an alliance game model which takes the global set temperature of a single unit or the combined set temperature of a plurality of units as decision variables and fuses thermal comfort utility and a global energy consumption penalty term, and a Shapley value is introduced to evaluate the marginal contribution and tolerance cost of each alliance, so that the overall energy consumption penalty of each unit is evaluated. And solving a Nash equilibrium solution or a Pareto optimal solution.