Abstract:
A large capacity memory module mounting device employed in a portable terminal is provided, including a large capacity memory module including a plurality of first contact pads; and a flexible circuit board including a plurality of second contact pads and electrically connected to the large capacity memory module by forming solder pads in a heating process after the first and second contact pads are positioned in a face-to-face manner. Accordingly, the large capacity memory module can be advantageously mounted to the portable terminal and an electromagnetic field can be effectively shielded.
Abstract:
A triple-axle-drive multistage transmission for heavy machinery includes an input part and a speed changing part. The input part includes a clutch part including a forward clutch part and a reverse clutch part to control transmission of the power received from a bevel gear unit, an input drive shaft coupled to the forward clutch part to mediate forward power transmission, a forward drive gear provided on a first end of the input drive shaft, and a reverse drive gear coupled to the reverse clutch part. The speed changing part includes a speed change drive shaft to mediate a change of speed of the power input from the input part, a planetary gear unit coupled to a first end of the speed changed drive shaft, and a reverse driven gear provided on a second end of the speed change drive shaft and engaging with the reverse drive gear.
Abstract:
Provided are a method of recovering L-threonine from the fermentation broth of an L-threonine producing microorganism, comprising: separating microbial bodies from the L-threonine containing fermentation broth obtained by culturing an L-threonine producing microorganism and filtering the separated fermentation broth to obtain a filtrate; concentrating the filtrate; and reacting the concentrated filtrate with a nonsolvent to obtain crystalline L-threonine, crystalline L-threonine recovered by the method, and a feed additive containing the crystalline L-threonine recovered by the method.
Abstract:
Disclosed is an atomic force microscope (AFM) probe for use in an AFM, and more particularly, an AFM probe suitable for testing the topography and mechanical properties of a microstructure having a size on the order of micrometers or nanometers. To this end, an AFM probe according to the present invention comprises an elastically deformable frame having a fixed end and a movable end on one axis; an AFM tip supported by the movable end to be movable against a test sample in a direction of the axis; and a stopper provided on an inner surface of the frame to control a movement of the AFM tip within a predetermined range.
Abstract:
A process for the production of animal feed additives from fermentation broth containing L-lysine is disclosed. The process does not require filtering of biomass in order to remove the biomass and produces granulated lysine of controllable lysine content with a high bulk density, low viscosity, and a low hygroscopic property which does not require the addition of an anti-absorptive substance. In this process, a lysine fermentation broth produced after slant culture, flask culture, seed process, and cultivation process is concentrated to a solid content of about 44˜52%. A product with low hygroscopicity, high bulk density, and the intended amount of contents is produced after being mixed with substances for controlling the amount of contents and granulated by coating the surface of the seeds. This process enables a production of animal feed additives having a lysine-HCl content of at least 65%, a water content of at most 3%, and a bulk density of 670±50 kg/m3.
Abstract translation:公开了从含有L-赖氨酸的发酵液中生产动物饲料添加剂的方法。 该方法不需要过滤生物质以除去生物质并产生具有高堆积密度,低粘度和低吸湿性的可控赖氨酸含量的肉粒状赖氨酸,其不需要添加抗吸收物质。 在此过程中,将倾斜培养,烧瓶培养,种子处理和培养过程后产生的赖氨酸发酵液浓缩至固体含量约44〜52%。 在与用于控制含量量的物质混合并通过涂覆种子表面而造粒的物质混合后,产生具有低吸湿性,高堆积密度和预期含量的产品。 该方法能够生产具有至少65%的赖氨酸-HCl含量,至多3%的水含量和670±50kg / m 3的体积密度的动物饲料添加剂。
Abstract:
A method for manufacturing a lithium polymer secondary battery including cells each having an anode, a cathode, and an isolation film, which is capable of minimizing the gap between each electrode and the isolation film, and uniformly distributing stress over the entire surface of each electrode. This method involves preparing anode plates having a desired size, cathode plates having a desired size, and an isolation film having a desired size; wrapping one of the anode plates by the isolation film, wrapping one of the cathode plates by the isolation film; wherein it is overlapped with the anode plate, thereby forming one of the cells, and stacking remaining plates at both sides of the formed cell while rotating the formed cell, and simultaneously wrapping by the isolation film so that they are alternately arranged in a state in which the isolation film is tensioned by a desired tension.