Abstract: A dust removal-sterilization-deodorization integrated intelligent lightweight device for livestock and poultry houses includes: a transparent housing, a photocatalyst slidably connected to an inner wall of the transparent housing, filter sleeves rotatably mounted on the inner wall of the transparent housing, a flow guide cavity defined in the transparent housing, a fan fixedly connected to a left sidewall of the flow guide cavity, and a flow baffle fixedly connected to an air inlet end of the flow guide cavity. The filter sleeve includes a low-resistance melt-blown fabric, a rutile manganese-zinc layer is laid on an outer side of the low-resistance melt-blown fabric, a skeleton fabric is attached to an outer wall of the rutile manganese-zinc layer, and an outer wall of the skeleton fabric is rotatably connected to the inner wall of the transparent housing. At least two filter sleeves are transversely arranged, and the filter sleeves are tubular.

Abstract: A dust removal-sterilization-deodorization integrated intelligent lightweight device for livestock and poultry houses includes: a transparent housing, a photocatalyst slidably connected to an inner wall of the transparent housing, filter sleeves rotatably mounted on the inner wall of the transparent housing, a flow guide cavity defined in the transparent housing, a fan fixedly connected to a left sidewall of the flow guide cavity, and a flow baffle fixedly connected to an air inlet end of the flow guide cavity. The filter sleeve includes a low-resistance melt-blown fabric, a rutile manganese-zinc layer is laid on an outer side of the low-resistance melt-blown fabric, a skeleton fabric is attached to an outer wall of the rutile manganese-zinc layer, and an outer wall of the skeleton fabric is rotatably connected to the inner wall of the transparent housing. At least two filter sleeves are transversely arranged, and the filter sleeves are tubular.

Abstract: The invention discloses a method for predicting a residual strength of a composite material after impact. The method includes: acquiring a first frequency value of a composite material to be tested after impact damage; determining a first frequency change rate according to an initial frequency value and the first frequency value of the composite material to be tested; inputting the first frequency change rate to a pre-constructed residual strength prediction model to predict a first residual strength of the composite material to be tested; the first frequency value and the initial frequency value being obtained by a modal test. Further, residual strength prediction may be performed on the composite material in service, the position and the size of impact damage, the impact energy, the shape and quality of the impact object are not required to be determined, which avoids a rigidity test of the composite material in service.

Abstract: A system for measuring a cathode current includes a conducting bar and a current measuring device. The conducting bar has a rectangular plate-like structure, and a first end of the conducting bar is vertically cut to form a plurality of long teeth. The plurality of long teeth are equally spaced at the first end of the conducting bar. The number of the plurality of long teeth is equal to the number of cathodes. The upper surface of each of the long teeth may include a raised conductive contact. Each of the conductive contacts is connected with one cathode of an upstream slot. A second end of the conducting bar is connected with a downstream slot, and the second end of the conducting bar is one end opposite to the first end. The current measuring device is disposed on the conducting bar and used for measuring the current of each cathode.

Abstract: A method for predicting an electrode short circuit based on a current includes acquiring a current value of a cathode of an anode-cathode pair; acquiring a plurality of current values during a set period of time; determining an increased value of the plurality of current values varying with time; determining whether the increased value is within a set current range; if yes, using a linear fitting method to fit the plurality of current values in time sequence to obtain a linear model; acquiring a slope and a determining coefficient of the linear model; determining whether the slope is within a set slope range; if yes, determining whether the determining coefficient is smaller than a set determining coefficient value; if no, determining that there is a short circuit danger in the electrodes of the anode-cathode pair, and in other cases, determining that there is no short circuit danger in the electrodes.

Abstract: A system for measuring a cathode current includes a conducting bar and a current measuring device. The conducting bar has a rectangular plate-like structure, and a first end of the conducting bar is vertically cut to form a plurality of long teeth. The plurality of long teeth are equally spaced at the first end of the conducting bar. The number of the plurality of long teeth is equal to the number of cathodes. The upper surface of each of the long teeth may include a raised conductive contact. Each of the conductive contacts is connected with one cathode of an upstream slot. A second end of the conducting bar is connected with a downstream slot, and the second end of the conducting bar is one end opposite to the first end. The current measuring device is disposed on the conducting bar and used for measuring the current of each cathode.

Abstract: The present invention discloses a system and method for measuring an anode current of an aluminum electrolytic cell. The system includes a plurality of electrolytic cell units, where the electrolytic cell units each include: a column bus, two horizontal buses, m anodes, m anode rods, one or a pair of crossover buses, and a plurality of optical fiber current sensors. When one side of the anode rod is adjacent to another anode rod, the horizontal bus between the two anode rods is provided with one of the optical fiber current sensors; and when any side of the anode rod is adjacent to the column bus or the crossover bus, the horizontal bus between the anode rod and the column bus or the crossover bus is provided with one of the optical fiber current sensors.

Abstract: The present invention discloses a method and system for quickly detecting a cathode short circuit.

Abstract: In one embodiment, a monocyte derived bone-forming cell population is provided. In one embodiment, the cell population comprises an isolated monocyte cell population treated with an effective dose of LL-37. In another embodiment, a method of producing a population of monocyte-derived bone-forming cells is provided. The method comprises obtaining a blood sample from a subject; isolating a population of monocytes from the blood sample; treating the isolated monocytes with an effective dose of LL-37; and culturing the LL-37 treated monocytes until they differentiate into the population of monocyte-derived bone-forming cells. In another embodiment, a method of treatment for a bone injury or bone disease is provided. The method comprises administering a therapeutically effective amount of a composition to a subject having the bone injury or disease, the composition comprising a population of monoosteophils.

Abstract: In one embodiment, a monocyte derived bone-forming cell population is provided. In one embodiment, the cell population comprises an isolated monocyte cell population treated with an effective dose of LL-37. In another embodiment, a method of producing a population of monocyte-derived bone-forming cells is provided. The method comprises obtaining a blood sample from a subject; isolating a population of monocytes from the blood sample; treating the isolated monocytes with an effective dose of LL-37; and culturing the LL-37 treated monocytes until they differentiate into the population of monocyte-derived bone-forming cells. In another embodiment, a method of treatment for a bone injury or bone disease is provided. The method comprises administering a therapeutically effective amount of a composition to a subject having the bone injury or disease, the composition comprising a population of monoosteophils.

Abstract: In one embodiment, a monocyte derived bone-forming cell population is provided. In one embodiment, the cell population comprises an isolated monocyte cell population treated with an effective dose of LL-37. In another embodiment, a method of producing a population of monocyte-derived bone-forming cells is provided. The method comprises obtaining a blood sample from a subject; isolating a population of monocytes from the blood sample; treating the isolated monocytes with an effective dose of LL-37; and culturing the LL-37 treated monocytes until they differentiate into the population of monocyte-derived bone-forming cells. In another embodiment, a method of treatment for a bone injury or bone disease is provided. The method comprises administering a therapeutically effective amount of a composition to a subject having the bone injury or disease, the composition comprising a population of monoosteophils.

Abstract: In one embodiment, a monocyte derived bone-forming cell population is provided. In one embodiment, the cell population comprises an isolated monocyte cell population treated with an effective dose of LL-37. In another embodiment, a method of producing a population of monocyte-derived bone-forming cells is provided. The method comprises obtaining a blood sample from a subject; isolating a population of monocytes from the blood sample; treating the isolated monocytes with an effective dose of LL-37; and culturing the LL-37 treated monocytes until they differentiate into the population of monocyte-derived bone-forming cells. In another embodiment, a method of treatment for a bone injury or bone disease is provided. The method comprises administering a therapeutically effective amount of a composition to a subject having the bone injury or disease, the composition comprising a population of monoosteophils.