Abstract: A terminal device and a terminal device installation method are provided. The terminal device includes a machine body, a detachable cover with two side walls, and at least two coupling mechanisms arranged symmetrically. The machine body includes a front board, a rear board opposite to the front board, and two side boards connected between the front board and the rear board. Each coupling mechanism includes a coupling portion located at one side wall, a front track and a rear track respectively having a front opening and a rear opening opposite to the front opening and both located at one side board. As each coupling portion is coupled to each front track, the cover is assembled with the machine body and covers the front board, and as each coupling portion is coupled with each rear track, the cover is assembled to the machine body and covers the rear board.

Abstract: A bracket and a terminal equipment are provided. The bracket is provided for a terminal device to be installed thereon and includes a bracket body, two installing elements, and at least one holding element. The two installing elements respectively protrude outward from two sides of the bracket body, and each of the two installing elements includes an engaging portion. The two installing elements are configured to be inserted into the terminal device so the terminal device is installed on the bracket, and each of the engaging portions is configured such that each of the installing elements is engaged with and retained in the terminal device. The holding element protrudes outward from the bracket body and is configured to be inserted into a loading hole of the terminal device.

Abstract: A knob-driven adjusting mechanism has two fastening belts, one adjusting device, two base seats and two shafts. The fastening belt goes through a long groove. The fastening belt is formed with a tooth row on the side of the long groove. The adjusting device has a shell seat and a knob, and each fastening belt respectively goes through the shell seat. The knob is configured on the shell seat in a rotary form to drive the fastening belts. Each base seat is respectively used for the two side parts configured on an object. The base seat has two protruding support parts. Each shaft is respectively configured on each base seat. The two ends of the shaft respectively goes into each support part in the axial direction. Each shaft is respectively connected to each fastening belt, so that each fastening belt can respectively rotate in relation to the base seat.

Abstract: A paper-based micro-concentrator includes a bearing substrate, a fluid reservoir unit, a filter paper, an external electric field, an ion exchange membrane and a magnet. The fluid reservoir unit includes a first buffer solution tank and a second buffer solution tank, which are interval disposed on the bearing substrate. The filter paper is disposed on the bearing substrate, and two ends of the filter paper are respectively placed in the first buffer solution tank and the second buffer solution tank. The external electric field includes a cathode and an anode, which are respectively placed in the first buffer solution tank and the second buffer solution tank. The ion exchange membrane is disposed on the filter paper and close to the first buffer solution tank. The magnet is movably disposed under the bearing substrate.

Abstract: A data inspection system includes: a communication circuit arranged to operably communicate data with a plurality of attributes filtering devices to receive multiple activity records which are generated by the plurality of attributes filtering devices and corresponding to multiple IoT devices in a plurality of target IoT systems; a storage circuit arranged to operably store the multiple activity records received by the communication circuit; and a data classification circuit coupled with the storage circuit and arranged to operably classify each of the multiple activity records received by the communication circuit based on N attributes to form M data groups; wherein N is 2 or an integer greater than 2, while M is at least two times of N.

Abstract: The present disclosure provides a microfluidic device, including a bottom substrate, an electrowetting-on-dielectric (EWOD) chip, a circuit board, a dielectric film, and a motor. The EWOD chip is disposed on the bottom substrate, and the circuit board is arranged on the EWOD chip. The circuit board includes a circuit area that is electrically connected to the EWOD chip, and the empty area is adjacent to the circuit area and the EWOD chip is exposed. The dielectric film is disposed on the empty area of the circuit board and covers the exposed EWOD chip. The motor is disposed under the bottom substrate, and one end of the motor has a magnetic structure, so that the magnetic structure can move closer to or away from the bottom substrate.

Abstract: An Internet of Things (IoT) operations monitoring system includes: a plurality of attributes filtering devices for generating multiple activity records respectively corresponding to multiple IoT devices in a plurality of target IoT systems; and a data inspection system which includes: a communication circuit arranged to operably communicate data with the plurality of attributes filtering devices to receive the multiple activity records; a storage circuit arranged to operably store the multiple activity records received by the communication circuit; and a data classification circuit coupled with the storage circuit and arranged to operably classify each of the multiple activity records received by the communication circuit based on N attributes to form M data groups; wherein N is 2 or an integer greater than 2, while M is at least two times of N.

Abstract: A data inspection system includes: a communication circuit arranged to operably communicate data with a plurality of attributes filtering devices to receive multiple activity records which are generated by the plurality of attributes filtering devices and corresponding to multiple IoT devices in a plurality of target IoT systems; a storage circuit arranged to operably store the multiple activity records received by the communication circuit; and a data classification circuit coupled with the storage circuit and arranged to operably classify each of the multiple activity records received by the communication circuit based on N attributes to form M data groups; wherein N is 2 or an integer greater than 2, while M is at least two times of N.

Abstract: A multimedia storage system includes a multimedia distribution device and a plurality of storage devices. The multimedia distribution device splits a multimedia file into a plurality of multimedia segments and monitors the operation statuses of the storage devices. The multimedia distribution device further configures each of the multimedia segments to be stored in at least two of the storage devices according to the available storage devices in the multimedia storage system. The storage device comprises a network access device for receiving the multimedia segments and a redundant array of inexpensive disks for storing the received multimedia segments.

Abstract: The present invention relates to an engineering design method and a system of implementing same. In one embodiment, the method includes a construction process of knowledge components and a design process based on the knowledge components. The knowledge components pack universal modules in the standard forms. Accordingly, the knowledge components are independent from design layouts or design processes of products, and reusable in different projects and platforms. The design process integrates a variety of software platforms via an uniform environment and calls the knowledge components to complete the engineering designs. Further, the design process defines a data relation and an execution relation of the knowledge components and establishes a relationship between the knowledge components without programming. The universal module comprises at least operations, methods, rules and/or flows of an engineering design process and engineering analysis process.

Abstract: The present invention relates to an engineering design method and a system of implementing same. In one embodiment, the method includes a construction process of knowledge components and a design process based on the knowledge components. The knowledge components pack universal modules in the standard forms. Accordingly, the knowledge components are independent from design layouts or design processes of products, and reusable in different projects and platforms. The design process integrates a variety of software platforms via a uniform environment and calls the knowledge components to complete the engineering designs. Further, the design process defines a data relation and an execution relation of the knowledge components and establishes a relationship between the knowledge components without programming. The universal module comprises at least operations, methods, rules and/or flows of an engineering design process and engineering analysis process.

Abstract: The present invention relates to an engineering design method and a system of implementing same. In one embodiment, the method includes a construction process of knowledge components and a design process based on the knowledge components. The knowledge components pack universal modules in the standard forms. Accordingly, the knowledge components are independent from design layouts or design processes of products, and reusable in different projects and platforms. The design process integrates a variety of software platforms via an uniform environment and calls the knowledge components to complete the engineering designs. Further, the design process defines a data relation and an execution relation of the knowledge components and establishes a relationship between the knowledge components without programming. The universal module comprises at least operations, methods, rules and/or flows of an engineering design process and engineering analysis process.

Abstract: The present invention relates to an engineering design method and a system of implementing same. In one embodiment, the method includes a construction process of knowledge components and a design process based on the knowledge components. The knowledge components pack universal modules in the standard forms. Accordingly, the knowledge components are independent from design layouts or design processes of products, and reusable in different projects and platforms. The design process integrates a variety of software platforms via a uniform environment and calls the knowledge components to complete the engineering designs. Further, the design process defines a data relation and an execution relation of the knowledge components and establishes a relationship between the knowledge components without programming. The universal module comprises at least operations, methods, rules and/or flows of an engineering design process and engineering analysis process.