Abstract: A method for breeding Musca Domestica includes placing imagoes of Musca Domestica in an environment having a temperature of 18-35° C. and having a humidity of 50-80%. A laying pan is provided to attract the imagoes of Musca Domestica to lay eggs in the laying pan. The laying pan includes substances capable of attracting the imagoes of Musca Domestica to lay eggs in the laying pan. The eggs are transferred into a cultivating material including at least one product of soybean and/or milk. The eggs of Musca Domestica are bred at a temperature of 20-35° C. until hatching into larvae. The larvae are placed on swine feces and bred at a temperature of 20-35° C. for 2-3 days. The yield and breeding speed of the larvae of Musca Domestica are increased by the method.

Abstract: A method for making fertilizer from swine feces/urine by using Musca Domestica includes breeding and growing imagoes of Musca Domestica in an environment having a temperature of 18-35° C. and having a humidity of 50-80%. The imagoes of Musca Domestica lay eggs in the environment. The eggs of Musca Domestic are transferred into a cultivating material including at least one product of soybean and/or milk. The eggs of Musca Domestica are bred at a temperature of 20-35° C. until hatching into larvae. The larvae of Musca Domestica are placed on swine feces/urine of a thickness of 4-10 cm at a temperature of 20-35° C. for 2-3 days. The larvae feed on and decompose the swine feces/urine. The swine feces/urine decomposed by the larvae of Musca Domestica are collected and used as fertilizer.

Abstract: A method for treating swine feces/urine includes breeding and growing imagoes of Musca Domestica in an environment having a temperature of 18-35° C. and having a humidity of 50-80%. The imagoes of Musca Domestica lay eggs in the environment. The eggs of Musca Domestic are transferred into a cultivating material including at least one product of soybean and/or milk. The eggs of Musca Domestica are bred at a temperature of 20-35° C. until hatching into larvae. The larvae of Musca Domestica are placed on swine feces/urine of a thickness of 4-10 cm at a temperature of 20-35° C. for 2-3 days. The larvae feed on and decompose the swine feces/urine. The swine feces/urine can be decomposed in 5-7 days without causing pollution to the air, water sources, and environment.

Abstract: A method for treating swine feces/urine includes breeding and growing imagoes of Musca Domestica in an environment having a temperature of 18-35° C. and having a humidity of 50-80%. The imagoes of Musca Domestica lay eggs in the environment. The eggs of Musca Domestic are transferred into a cultivating material including at least one product of soybean and/or milk. The eggs of Musca Domestica are bred at a temperature of 20-35° C. until hatching into larvae. The larvae of Musca Domestica are placed on swine feces/urine of a thickness of 4-10 cm at a temperature of 20-35° C. for 2-3 days. The larvae feed on and decompose the swine feces/urine. The swine feces/urine can be decomposed in 5-7 days without causing pollution to the air, water sources, and environment.

Abstract: A method for making fertilizer from swine feces/urine by using Musca Domestica includes breeding and growing imagoes of Musca Domestica in an environment having a temperature of 18-35° C. and having a humidity of 50-80%. The imagoes of Musca Domestica lay eggs in the environment. The eggs of Musca Domestic are transferred into a cultivating material including at least one product of soybean and/or milk. The eggs of Musca Domestica are bred at a temperature of 20-35° C. until hatching into larvae. The larvae of Musca Domestica are placed on swine feces/urine of a thickness of 4-10 cm at a temperature of 20-35° C. for 2-3 days. The larvae feed on and decompose the swine feces/urine. The swine feces/urine decomposed by the larvae of Musca Domestica are collected and used as fertilizer.

Abstract: A method for producing a nutrient from larvae of Musca Domestica includes breeding and growing imagoes of Musca Domestica in an environment having a temperature of 18-35° C. and having a humidity of 50-80%. The imagoes of Musca Domestica lay eggs in the environment. The eggs of Musca Domestica are transferred into a cultivating material including at least one product of soybean and/or milk. The eggs of Musca Domestica are bred at a temperature of 20-35° C. until hatching into larvae. The larvae of Musca Domestica are placed on swine feces/urine of a thickness of 4-10 cm at a temperature of 20-35° C. for 2-3 days. The larvae feed on and decompose the swine feces/urine. The larvae of Musca Domestica are collected and treated by hot water and dehydrated to obtain a nutrient.

Abstract: A method for breeding Musca Domestica includes placing imagoes of Musca Domestica in an environment having a temperature of 18-35° C. and having a humidity of 50-80%. A laying pan is provided to attract the imagoes of Musca Domestica to lay eggs in the laying pan. The laying pan includes substances capable of attracting the imagoes of Musca Domestica to lay eggs in the laying pan. The eggs are transferred into a cultivating material including at least one product of soybean and/or milk. The eggs of Musca Domestica are bred at a temperature of 20-35° C. until hatching into larvae. The larvae are placed on swine feces and bred at a temperature of 20-35° C. for 2-3 days. The yield and breeding speed of the larvae of Musca Domestica are increased by the method.

Abstract: The present invention discloses a set of devices in cascade for driving display devices. For each of the driving devices, the serial-data-in pin and the serial-data-out pin traditionally used to transfer image data can further deliver commands from and/or internal statuses of the driving devices to an external controller. Accordingly, inventive functions of command transfer and/or status feedback can be achieved without adding extra pins. The present invention also discloses a device suitable for forming the driving set, in which a command register and/or a status register is provided.

Abstract: The present invention discloses a set of devices in cascade for driving display devices. For each of the driving devices, the serial-data-in pin and the serial-data-out pin traditionally used to transfer image data can further deliver commands from and/or internal statuses of the driving devices to an external controller. Accordingly, inventive functions of command transfer and/or status feedback can be achieved without adding extra pins. The present invention also discloses a device suitable for forming the driving set, in which a command register and/or a status register is provided.