6results about How to "Solve the occupancy" patented technology

This invention discloses an assembly method for a tooling used for on-site replacement of a coke tower shell. The tooling includes multiple auxiliary replacement components positioned between the outer walls of the coke tower shell at both ends of the shell to be replaced. Reinforcing rings are connected to the outer walls of both the upper and lower shells, and these reinforcing rings are placed within the auxiliary replacement components. A new shell is installed between the upper and lower reinforcing rings, and its outer wall is provided with multiple evenly spaced lifting lugs. Each auxiliary replacement component includes multiple evenly spaced arc-shaped pads fixed to the outer walls of the upper and lower shells. Multiple reinforcing plates are fixed to one side of each pad, with stiffening ribs between them. The upper and lower reinforcing plates and stiffening ribs are symmetrically distributed. A connecting rod is installed between the upper and lower reinforcing plates, its inner side connected to the reinforcing rings. The arc-shaped pads conform to the tower wall in curvature and are made of the same material, ensuring uniform stress on the contact surface. The stiffening ribs are welded to form a stable triangular support, effectively distributing the load. H-beam connecting rods connect the upper and lower reinforcing plates and are welded to the reinforcing rings, constructing a continuous load-bearing frame to avoid deformation or cracking caused by localized stress concentration, thus meeting the requirements for large-scale coke towers.

The utility model provides a vehicle-mounted product thread pass-stop detection device, which belongs to the technical field of detection devices and comprises a detection mechanism, a support frame, a detection component fixedly mounted at the top of the support frame and used for detecting the thread pass-stop of a vehicle-mounted product, and a material pushing component used for feeding the vehicle-mounted product, the detection component comprises a fixing frame fixedly installed on the top of the supporting frame, an installation plate installed on the surface of the fixing frame in a sliding mode, and a motor fixedly installed on the installation plate. According to the utility model, through cooperation between the material pushing part and the material loading part, automatic material loading and detection functions of vehicle-mounted products are realized, and the defects of a traditional manual detection mode that an operator needs to hold an electric tool by hand to carry out thread go-no detection one by one originally, the efficiency is low, a large number of manpower resources are occupied, and the detection cost is reduced are overcome. The detection efficiency of the vehicle-mounted product is improved, and the problem of labor occupation caused by manual detection is avoided.

This invention relates to the field of building fabric technology, and discloses a fabric-laying robot based on intelligent construction. The robot includes a fabric-laying frame, a delivery pipe, a support arm, horizontal movable joints, and a fabric hose. The end of the support arm is movably connected to a retractable dual-axis motion platform via a vertical movable joint and a connecting frame. The end of the fabric hose moves horizontally through the retractable dual-axis motion platform, which consists of a storage module and a motion module. A rope-type structure is used to construct the X-Y horizontal motion platform, solving the problem of excessive space occupation when not in use. Furthermore, when the X-axis extended movable joint drives the support arm of the motion platform to rotate, the X-axis length is increased; conversely, when the Y-axis extended movable joint drives the support arm of the motion platform to move, the Y-axis length is increased. The X-axis connects the robot to the two Y-axis locations. This dynamic configuration allows for adjustment of the rectangular coverage area according to actual needs.

The application relates to the technical field of wireless storage, and discloses a low-power-consumption non-inductive connection wireless storage system and method based on Bluetooth wake-up and WiFi high-speed transmission, which is applied to a wireless storage device containing a CPU processor module, a low-power-consumption Bluetooth communication module, a WiFi communication module, a storage module, a battery and a power management module, and specifically comprises the following steps: S11: after receiving a starting signal, starting is completed; the wireless storage device starts the low-power-consumption Bluetooth communication module according to a working mode configuration preset in a nonvolatile memory, sets the low-power-consumption Bluetooth communication module to a discoverable and connectable broadcast state, simultaneously controls the power management module to cut off power supply to the WiFi communication module, unnecessary storage media in the storage module and unnecessary computing cores in the CPU processor module, and the device does not emit any WiFi signal in this mode; the low-power-consumption Bluetooth module is started by default, and the power supply of the WiFi is cut off, so that the device enters an ultra-low-power-consumption permanent standby mode.

This invention provides a method, apparatus, electronic device, and storage medium for generating flame effects. The method involves determining an initial sampling point along the sampling direction of the pixel to be rendered; using this initial sampling point as the current sampling point, and iteratively executing the following steps: controlling the current sampling point to shift over time; determining a sampling step size based on the distance from the shifted current sampling point to the geometry; sampling based on the sampling step size and sampling direction to obtain the next sampling point; determining the color parameters of the current sampling point based on reference color parameters, the step depth of the current sampling point, and the sampling step size; using the next sampling point as the updated current sampling point; and determining the final color parameters of the pixel based on the color parameters of the initial and subsequent sampling points, and rendering the pixel to obtain the flame effect. This method achieves dynamic flame rendering without relying on textures or voxel data; the effect can be changed simply by adjusting relevant parameters in the program, improving the efficiency of flame effect production and iteration.