7results about How to "No need to wait" patented technology

The invention relates to the field of intelligent corpora, in particular to an intelligent vertical business corpus construction and real-time intention recognition system which comprises equipment carrying an intention recognition system, and the intention recognition system comprises a voice input module, a semantic database and a voice output module. The semantic database is respectively connected with the voice input module and the voice output module, and the voice input module and the voice output module are respectively used for voice receiving and voice output. Through comprehensive corpus construction, fine word segmentation processing and reasonable weight presetting, various complex and diversified language expressions can be dealt with, and the intention of the user can be more accurately captured in various fields needing language interaction with the user and understanding the intention of the user, such as customer service consultation, intelligent navigation and the like.

The utility model belongs to feed additive processing equipment technical field relates to a kind of multi-component feed additive processing and mixing equipment, including the mixing cylinder being erected on support frame, and the quantitative feeding crushing component is equipped on the mixing cylinder, and the powder grinding assembly, airflow disturbance component and powder stirring mixing device are sequentially equipped in the mixing cylinder from top to bottom, heating sleeve is sleeved on the mixing cylinder, temperature sensor and air pressure sensor are penetrated and arranged on the mixing cylinder, and the quantitative feeding crushing component is connected with the powder grinding assembly.The utility model is crushed and ground to the feed additive raw material of addition by the powder grinding assembly cooperation quantitative feeding crushing component, reduces the problem of uneven mixing caused by the size difference of particle, and airflow disturbance component cooperation powder stirring mixing device makes feed additive particle constantly tumble, collision, breaks the gathering state between particles, and promotes the uniform dispersion of each component;Mixing cylinder powder stirring area is heated by heating sleeve, to prevent material from dampening and caking phenomenon.

The invention relates to the technical field of dried fish processing, in particular to a material extrusion device for dried squid processing, which comprises a bottom plate, the upper end of the bottom plate is fixedly connected with a concave supporting seat, and the upper end of the concave supporting seat is fixedly provided with an extrusion oil cylinder and a lifting oil cylinder; the lower end of a piston rod of the extrusion oil cylinder downwards penetrates through the upper end of the concave supporting seat and is fixedly connected with the pressing plate, the lower end of a piston rod of the lifting oil cylinder downwards penetrates through the upper end of the concave supporting seat and is fixedly connected with the lifting plate, and a supporting table is fixedly installed at the position, on the inner side of the concave supporting seat, of the upper end of the bottom plate. The storage barrel mounting device has the beneficial effects that when a storage barrel is mounted, the storage barrel is firstly inserted downwards along a circular through groove in the upper end of a rotating seat, after an annular plate is clamped to the bottom of an annular groove, a butt joint block is clamped to the bottom of a butt joint groove, and a locking pressing block is clamped to the upper end of the butt joint block under the action of the elastic force of an elastic piece; and therefore, the butt joint block is firmly locked in the butt joint groove, and the annular plate and the storage barrel are locked.

This invention discloses a method for generating crystal image samples based on a diffusion model, comprising: generating a standard comparison image based on a reaction flask photograph; obtaining crystal identification features based on the shape and color of the crystal; detecting the presence of the crystal by using the crystal identification features and the standard comparison image; and generating a crystal image based on the crystal presence result. The crystal image generation is performed using a diffusion model. This invention, through an AI method based on a diffusion model, can generate crystal growth images under different conditions within seconds, without requiring long waiting times for experimental results or physical experiments. It can generate high-quality crystal growth samples, suitable for materials research and educational visualization. The shape, color, transparency, and other parameters of the crystal can be adjusted to match experimental data of specific chemical systems. It utilizes AI to generate large-scale, high-quality crystal growth image datasets, assisting the application of deep learning in materials science.

The utility model relates to the technical field of shoe body production, and discloses an automatic shoe tree taking-off device which comprises a workbench, a feeding mechanism, a shoe tree untying mechanism, a shoe body taking-off mechanism and a discharging mechanism. A transmission mechanism is arranged on the workbench; a feeding station, a shoelace untying station, a shoe body taking-off station and a discharging station are sequentially arranged on the conveying mechanism. A plurality of groups of clamping seats are further arranged on the transmission mechanism; the feeding mechanism is arranged on the workbench. The shoelace untying mechanism is arranged on the workbench; the shoe body taking-off mechanism is arranged on the workbench; the discharging mechanism is arranged on the workbench. By arranging the feeding mechanism, the shoelace untying mechanism, the shoe body taking-off mechanism and the discharging mechanism, whole-process automatic operation of feeding, shoelace untying, shoe body taking-off and shoe body and shoe tree discharging is achieved, a large amount of manual participation is reduced, the delasting period is greatly shortened, all stations are efficiently connected through the conveying mechanism, manual carrying and waiting are not needed, and the working efficiency is improved. And the high efficiency of continuous operation is ensured.

The invention discloses a cooking control method and device, cooking equipment and a storage medium, the cooking control method is applied to the cooking equipment with a cooling structure and a cooking cavity structure, and the method comprises the steps that after the cooking equipment is in a cooking stage and before the cooking equipment is in a heat preservation stage, the cooling structure is controlled to cool the cooking cavity structure for a first duration, the cavity detection temperature of the cooking cavity structure is in a preset palatable temperature range; wherein the temperature value of the preset palatable temperature range is smaller than the temperature value of the preset heat preservation temperature range in the heat preservation stage, and therefore after the cooking process is finished, the food temperature can be rapidly within the palatable temperature range, a user can obtain palatable food without waiting for a long time, and the use experience of the user is greatly improved.

The utility model relates to a double-station glass positioning device and automatic glass processing equipment, and solves the problems that in the existing full-automatic multifunctional glass processing equipment, the time for positioning glass by a positioning function module is long, a carrying device needs to wait for a period of time to carry new to-be-processed glass, and the working efficiency is high. The processing operation efficiency of the whole equipment is influenced. The positioning device comprises a first station positioning device and a second station positioning device. The full-automatic glass cutting machine is widely applied to full-automatic glass processing operation.