Abstract: The present disclosure relates to the field of inductor, specifically to an inductor device and a forming method therefor. The injection-molded body of the inductor device is formed through multiple injection molding steps. The first inductor coil and the first magnetic core column are fixed together in advance, and the injection pressure required for the first injection-molded body is lower than that for the entire inductor device. Similarly, the magnetic yoke column also experiences reduced injection pressure. Finally, when fixing the first assembly and the magnetic yoke column assembly in place by the inductor injection-molded body, due to the first injection-molded body having already fixed first magnetic core column and the first inductor coil, the overall anti-pressure ability of the first assembly is higher, enabling it to withstand greater injection pressure, resulting in a higher yield rate for the inductor device.

Abstract: The present disclosure relates to the field of inductor, specifically to an inductor device and a forming method thereof. A coil and a magnetic core are secured through a primary injection molding process to form a primary molded body, which is then fixed with an insert to form the inductor device. Compared to current encapsulation molding process, the present application adopts a novel injection molding technique that offers higher molding efficiency. Additionally, by employing a two-stage injection molding process, the molding material can more easily penetrate into smaller gaps, ensuring more thorough filling at the corners and edges. This method also helps to reduce injection pressure, thereby decreasing the impact force on the magnetic core and lowering the risk of cracking or damage to the magnetic core.

Abstract: The invention disclosed herein provides methods for the examination and/or quantification of biochemical pathways that are disregulated in pathologies such as cancer and to reagents and kits adapted for performing such methods.