7 results about "Pilot scale" patented technology

The invention relates to ice wine yeast with high fermentation activity and outstanding aroma-producing characteristics and application thereof. The ice wine yeast is yeast (Saccharomyces cerevisiae) YSL16010, and the bacterial strain has been preserved in China General Microbiological Culture Collection Center on April 18, 2016, with a preservation number of CGMCC No.12349. The bacterial strain YSL16010 is obtained by separating and screening Vidal grapes from a Huanren producing area of Liaoning at a temperature of 16 DEG C in a natural fermentation process, and the ice wine wine-making yeast having good making characteristics and highly producing esters is obtained through a series of screening and identifications and small pilot scale fermentation. The ice wine wine-making yeast YSL1610 highly producing esters is used for fermenting and producing ice wine, so that the yield of volatile acid is effectively controlled while the standards of the grape wine producing countries can be met, and therefore, the content of aromatic compounds such as esters is remarkably increased. The bacterial strain can be applied to ice wine brewing industry, and can play an important role in improving the quality of the ice wine and bringing advantages of the grape producing areas into play.

The invention relates to a pilot-scale simulation coiling furnace. The pilot-scale simulation coiling furnace comprises a furnace body, a stirring fan system, an electric exhaust fan system, a water cooling system, an intelligent control unit and a detection unit, and the intelligent control unit takes an intelligent digital regulator as a core and adopts a PID (Proportion Integration Differentiation) self-tuning algorithm to realize accurate control of the furnace temperature, so that a rolled piece can be stably cooled at a settable average rate of 0.2-1.0 DEG C / min in a range of 100-900 DEG C. And the water cooling system cools a motor and a bearing of the stirring fan system through circulating cooling water, so that the service life of equipment is effectively prolonged. The industrial coiling cooling working condition can be accurately simulated, the reliability and reproducibility of experimental data are improved, the automation degree is high, operation is stable, and a powerful platform support is provided for optimization of a pilot plant test material cooling process.

A modular system for blow molding containers is provided.SOLUTION: The system may include a first portion, a second portion, and a third portion. The first portion and the second portion may each include a shell, a mold removably coupled to the shell, and a top plate. The third portion may include a base and a base mold. The mold may be 3D printed. The molds may collectively define a blow mold cavity. The modular system may be used at laboratory scale, pilot scale, or full production scale. The mold may be durable and smooth enough for full production scale. Some embodiments relate to a method for making a modular system for blow molding containers.SELECTED DRAWING: Figure 1

The utility model discloses a pilot-scale preparation device for a silane coupling agent, and belongs to the technical field of chemical equipment. A silane coupling agent pilot scale preparation device comprises a first device and a second device, the first device and the second device each comprise a movable support, pilot equipment is installed on the supports and comprises a dropwise adding tank, a synthesis kettle, a rectifying tower, a condenser and a receiving tank, and the rectifying tower and the condenser are connected through a movable joint buckle. According to the pilot-scale preparation device for the silane coupling agent, a movable joint buckle connection mode is adopted, so that the rectifying tower and the condenser can be quickly assembled or disassembled, the use flexibility of equipment is greatly improved, different production process requirements are met, due to the adoption of a detachable design, the occupied space of the equipment when the equipment is idle is reduced, and the production cost is reduced. Transportation and storage are facilitated, and the equipment combination can be flexibly adjusted according to different stages of the production process.

A system configured to conduct a two-phase gas-solid conveying test under controlled pressure and flow conditions, the system comprising a gas pressure supply unit comprising at least one gas pressurizing device configured to receive and pressurize a gas stream and deliver the pressurized gas stream to a gas inlet line; a cooling unit disposed at a downstream of the gas pressure supply unit and connected in fluid communication therewith, the cooling unit configured to regulate a temperature of the pressurized gas stream; a gas flow control unit disposed at a downstream of the cooling unit and connected in fluid communication therewith, the gas flow control unit configured to regulate either a flow rate and a velocity of the pressurized gas stream through the gas inlet line, the gas flow control unit comprising at least one flow measuring device and at least one flow regulating valve; a two-phase transport unit disposed at a downstream of the gas flow control unit and connected in fluid communication therewith, the two-phase transport unit comprising a two-phase transport line configured to convey a two-phase gas-solid flow and at least one pressure monitoring device disposed along the two-phase transport line and configured to monitor pressure drop during the two-phase gas-solid conveying test; a solid-phase feeding unit mechanically coupled and fluidly connected to the two-phase transport line, the solid-phase feeding unit configured to deliver a plurality of solid particles into the two-phase transport line to form the two-phase gas-solid flow; and a product collection and separation unit disposed at a downstream of the two-phase transport unit and connected in fluid communication therewith, the product collection and separation unit configured to receive the two-phase gas-solid flow, separate a solid phase from a gas phase, and discharge the gas phase to an atmospheric outlet.

1. Name of the designed product: automatic cell or its derivative harvesting and purifying device (small scale model). 2. Use of the designed product: automatic harvesting and purifying of cell or its derivative in small scale. 3. Design points of the designed product: in shape. 4. Picture or photo best indicating the design points: perspective view 1.