50results about How to "Flexible supply" patented technology

A radiographic image capturing apparatus includes a mobile cart unit, a plurality of devices used for capturing a radiographic image, and an electric power supply activator enabling supply of electric power between the devices, based on an instruction of permission to supply electric power.

A developing system comprises: a plurality of image carriers; a plurality of developing devices for developing electrostatic latent images, formed on the plurality of image carriers, with respective liquid developers of different colors of which carrier is nonvolatile solvent; and developer collecting means which are disposed at a plurality of locations for collecting excess developers, wherein the developing devices have developer containers, respectively. The developing system further comprises a carrier storing tank for distributing the carrier to the respective developer containers.

The invention relates to the cargo area of an airport, having transporting paths which connect the land side and the air side of the airport and are intended for the standard loading units (ULDs), and also having interim stores for the buffer storage of the loading units prior to the cargo being assembled. In order to create storage and sorting opportunities in the immediate vicinity of the transporting paths, while being simultaneously independent of the main store, and in order to achieve flexible supply of the loading units, it is proposed for the transporting paths to be assigned vertical stores each with a plurality of storage levels which are arranged one above the other, are set up above or alongside the transporting paths and in which, with the aid of lifting means, the loading units, which can be lifted off from the transporting paths, can be stored.

The invention relates to the cargo area of an airport, having transporting paths which connect the land side and the air side of the airport and are intended for the standard loading units (ULDs), and also having interim stores for the buffer storage of the loading units prior to the cargo being assembled. In order to create storage and sorting opportunities in the immediate vicinity of the transporting paths, while being simultaneously independent of the main store, and in order to achieve flexible supply of the loading units, it is proposed for the transporting paths to be assigned vertical stores each with a plurality of storage levels which are arranged one above the other, are set up above or alongside the transporting paths and in which, with the aid of lifting means, the loading units, which can be lifted off from the transporting paths, can be stored.

The invention provides a method for desiliconization of molten iron for stainless steel smelting, which includes the following steps: Step 1: preparation of blast furnace molten iron: adding the laterite nickel ore to the blast furnace after batching and sintering for smelting, and ensuring that the tapping temperature of the blast furnace is ≥ 1350°C; Step 2: Transportation: Transport the high-temperature nickel-containing high-silicon molten iron from the blast furnace to the desiliconization converter in the form of "one pack to the bottom" or "mixed iron furnace"; Step 3: Treat nickel-containing high-silicon in the desiliconization converter Desiliconization, decarburization, dephosphorization, and desulfurization of hot metal are carried out, and the hot metal is desiliconized by top-bottom double blowing. After desiliconization, the mass percentage of silicon in the hot metal is not more than 0.20%; Step 4: final product smelting: blowing After the completion, the semi-steel from the desiliconization converter is charged into the AOD furnace, and the alloy is added in the AOD furnace at the same time, and the final smelting of stainless steel is completed. This desiliconization process requires low Si content in molten iron, provides sufficient reaction space for desiliconization, effectively prevents splashing, and creates good kinetic conditions for desiliconization, and can also perform dephosphorization and desulfurization operations.

The invention discloses a movable scaffold. The movable scaffold comprises a supporting frame body, universal wheels installed at the four corners of the supporting frame body, a control box, a control switch, a power supply, steering mechanisms and driving mechanisms connected with the universal wheels. Steering chain wheels driven by the steering mechanisms are installed at the joints of the universal wheels and the supporting frame body. The power supply, the control box, the control switch, the driving mechanisms and the steering mechanisms are electrically connected. Free walking of the movable scaffold is achieved through combined control of the control box and the control switch, constructors on the movable scaffold can walk by themselves conveniently through a control handle, a winding disc type power box supplies power flexibly, a barrier removal piece removes barriers in the walking process, a stroke switch and a wall collision alarm switch guarantee walking safety, and due to a lifting type support, the movable scaffold does not need to be disassembled when a construction site is changed in same-layer construction. A traditional scaffold is thoroughly changed, the constructors on the scaffold can carry out control by themselves, and meanwhile control is flexible and safe.

The invention discloses a method for producing light oil through coal liquefaction. According to the method, the cascade conversion principle that coal is converted from coal slurry into macromolecule former asphaltene / asphaltene and then into micromolecule oil in the direct coal liquefaction process is fully utilized, a plug flow suspension bed reactor which is high in solid content adaptability, an internal circulation suspension bed reactor which is high in mass and heat transfer efficiency and a fixed bed reactor which is good in hydrogenation effect are optimized and combined, and high-efficient conversion of the coal is achieved; meanwhile, heavy aromatic oil laterally drawn by a vacuum distillation tower, tower bottom oil processed through hydrogenation and internal heavy oil are used as coal powder solvent oil, and not only are the sufficient sources and the hydrogenation performance of the solvent oil guaranteed, but also the operation elasticity is improved. According to the method, the process route is short, raw materials are flexible, the energy consumption is low, the conversion rate and the liquid yield is high, and not only can direct coal liquefaction operation be performed, but also the coal-oil coprocessing operation can be achieved to produce high-quality liquid fuel.