Abstract: The present invention discloses a pressure vessel apparatus with sensing identification function, comprising a pressure vessel body and an an identification tag. The pressure vessel body has a concave container located on its surface. The identification tag is located in the concave container, comprising a record IC and a communication unit. The record IC is used for recording the status information of the pressure vessel body. When the reading device reads the identification tag, and thus provides an identification signal such that the communication unit transmits the status information to the reading device to verify whether the lifetime of the pressure vessel apparatus was expired.

Abstract: A computer host including a casing, an antenna and an antenna holder is provided. More specifically, the antenna holder has an opening perpendicular to one side of the host and is located in the back side of the host and close to the intersection of a top, a side and the back side of the host so that an antenna fixed into the antenna holder can rotate and swing on a higher place relative to the casing of the host. This means that the antenna can be adjusted to any direction to receive the best signals while the host is either straightened up or lay down.

Abstract: A computer housing includes a shell having a side opening, a first side wall and a second side wall, and a support bracket rotatably mounted on the shell and having a head portion, a tail portion, and a support portion. Thus, when the support bracket is rotatable to a closed position, the tail portion of the support bracket is rested on the second side wall of the shell, and the support portion of the support bracket is received in an inside of the shell, and when the support bracket is rotatable to an open position, the tail portion of the support bracket is detached from the second side wall of the shell, and the support portion of the support bracket is detached from the inside of the shell.

Abstract: A computer casing for a computer includes a housing, and a side cover. The side cover has a plurality of locking hooks, at least one first straight side and at least one second straight side. The housing has at least one first side rail having a straight side and a plurality of locking slots and at least one second side rail having at least one alignment line. Thus, when the first straight side of the side cover aligns with the straight side of the first side rail of the housing and the second straight side of the side cover aligns with the alignment line of the second side rail of the housing, each of the locking hooks of the side cover is inserted into the respective locking slot of the first side rail.

Abstract: A method for purifying exhaust of waste gas using atomized fluid droplets combined with turbulent flow, including the following steps: a). atomizing the absorption or reacting fluids to microsized droplets; b). enabling waste gas to pass through the aforementioned absorption or reacting fluids and creating a turbulent flow to thoroughly react the waste gas with the droplets; c). reacting of harmful substances in the waste gas with droplets of the absorption or reacting fluids; d). implementing demisting treatment of the waste gas flow; e). discharging the treated waste gas. The aforementioned steps of the present invention enable the purification of waste gas without the need for packing, and achieve high removal efficiency and low energy consumption.

Abstract: A computer host including a casing, an antenna and an antenna holder is provided. More specifically, the antenna holder has an opening perpendicular to one side of the host and is located in the back side of the host and close to the intersection of a top, a side and the back side of the host so that an antenna fixed into the antenna holder can rotate and swing on a higher place relative to the casing of the host. This means that the antenna can be adjusted to any direction to receive the best signals while the host is either straightened up or lay down.

Abstract: A cooling fan with fluid control device comprises a fan blade assembly and a frame member. The frame member provides a hub seat movably attached with the fan blade assembly and formed with a plurality of fluid control elements at the inner side thereof to control radial pressure of fluid. The frame member at least has a fluid guide part connected to the fluid control elements with a first through hole and a second through hole being in the fluid guide part and the first through hole being greater than the second through hole. When the fan blade assembly rotates to move the fluid, the fluid can flow toward the center of the frame member by way of the fluid control elements and the fluid guide part to increase the amount of the fluid at the rear side of the hub seat.

Abstract: A manufacturing process using microwave for thermal debinding according to the invention is mainly applied in manufacturing process of powder metallurgy. Wherein, metal powder is mixed polymer materials such as adhesives, fillings or lubricants, and a body is formed by means of molding, forging, extrusion, injection or scraping. The body to be debinded is placed in a microwave environment in an exposed manner or covered with powder, and power and work time of microwave are set for rapidly heating and debinding the body. The manufacturing process according to the invention is capable of accelerating manufacturing procedure, economizing production cost, reducing defects, quickly drying and rapidly removing polymer materials.

Abstract: A processing method for ceramic, having processing steps consisting of: (a) Manufacture pellets; (b) Cover the pellets with microwave dielectric; (c) Place the pellets into a microwave environment; (d) Microwave degreasing; (e) Complete degreasing. Procedural steps of the present invention primarily consist of placing the ceramic pellets in a container filled with microwave dielectric powder, placing the container within the microwave environment, and then regulating microwave power and time period for degreasing, whereupon the microwave dielectric powder surrounding and covering the pellets subsequently absorbs the microwaves and thereby facilitates indirect degreasing of the pellets.

Abstract: The manufacturing technique for powder metallurgy of the invention includes the steps of: mixing ceramic powder with binders, fillings or lubricants for casting a body; forming a microwave-absorbent body using molding, extrusion, forging, injection or doctor blade; placing the body into a microwave oven for heating and debinding; placing the half-finished product after debinding in a sintering oven for sintering the debinded half-finished product; and finally obtaining a finished product after sintering and temperature lowering.