Abstract: A holding apparatus includes a top holder having a coupler and a top casing capable of adjusting the distance and tilt therebetween using three points adjustment. When a microfluidic device along with a cover are disposed on a bottom holder of the holding apparatus and the top holder is pivoted with respect to the bottom holder to a closed position, the contact surface of soft plugs on the coupler and the cover can be made parallel by a certain distance with a first surface of the microfluidic device, and the distance between the coupler and the top casing determines the pressure exerted through elastic components onto the microfluidic device, so that external pipes can be seamlessly attached to the microfluidic device and also ensuring no deformation due to external forces should happen on microfluidic device.

Abstract: A holding apparatus includes a top holder having a coupler and a top casing capable of adjusting the distance and tilt therebetween using three points adjustment. When a microfluidic device along with a cover are disposed on a bottom holder of the holding apparatus and the top holder is pivoted with respect to the bottom holder to a closed position, the contact surface of soft plugs on the coupler and the cover can be made parallel by a certain distance with a first surface of the microfluidic device, and the distance between the coupler and the top casing determines the pressure exerted through elastic components onto the microfluidic device, so that external pipes can be seamlessly attached to the microfluidic device and also ensuring no deformation due to external forces should happen on microfluidic device.

Abstract: The present invention provides a particle transporting system including a holder, a vibrator and a tube. The vibrator connects the holder to provide vibration to the holder. The tube spirally surrounds the holder. A method of operating a particle transporting system is provided. The method includes the following steps: (a) providing a particle transporting system as shown above; (b) injecting a sample fluid with plural particles into the tube; and (c) transporting the sample fluid with the particles to a target apparatus with vibration provided by the vibrator.

Abstract: An instrument comprises a semi-circular rail and a driving mechanism. The driving mechanism is attached to a light source mount and a detector mount, and both the light source mount and the detector mount are attached to the semi-circular rail with connectors. Each connector allows the light source mount and detector mount to slide along the rail. The synchronous movement of the light source mount and the detector mount changes the angle of incidence of a light beam from the light source with respect to the plane of the sample surface on the sample stage. An SPR analysis system includes an SPR analysis system control computer program having a graphical user interface and configured to control the operation of an SPR analysis apparatus. According to an embodiment, an SPR data analysis computer program includes an SPR microarray video viewer and a sensorgram generator responsive to the SPR video.

Abstract: Instruments and methods relating to surface plasmon imaging are described. An instrument comprises a semi-circular rail and a driving mechanism. The driving mechanism is attached to a light source mount and a detector mount, and both the light source mount and the detector mount are attached to the semi-circular rail with connectors. Each connector allows the light source mount and detector mount to slide along the rail. The synchronous movement of the light source mount and the detector mount changes the angle of incidence of a light beam from the light source with respect to the plane of the sample surface on the sample stage.

Abstract: An apparatus of manufacturing a microarray biochip including a spinning platen, at least one carrier and at least one substrate is provided. The carrier is disposed on the spinning platen and includes at least one micro-channel having an input terminal and an output terminal. The substrate is attached on the output terminal of the micro-channel of the carrier. A method of manufacturing a microarray biochip with said apparatus is also provided. A sample is injected into the micro-channel through the input or the output terminal. The spinning platen is powered-on to provide a centrifugal force to the carrier, such that the sample is flowed toward the output terminal from the input terminal, and then is immobilized on the surface of the substrate.

Abstract: Instruments and methods relating to surface plasmon imaging are described. An instrument comprises a semi-circular rail and a driving mechanism. The driving mechanism is attached to a light source mount and a detector mount, and both the light source mount and the detector mount are attached to the semi-circular rail with connectors. Each connector allows the light source mount and detector mount to slide along the rail. The synchronous movement of the light source mount and the detector mount changes the angle of incidence of a light beam from the light source with respect to the plane of the sample surface on the sample stage.

Abstract: Instruments and methods relating to surface plasmon imaging are described. An instrument comprises a semi-circular rail and a driving mechanism. The driving mechanism is attached to a light source mount and a detector mount, and both the light source mount and the detector mount are attached to the semi-circular rail with connectors. Each connector allows the light source mount and detector mount to slide along the rail. The synchronous movement of the light source mount and the detector mount changes the angle of incidence of a light beam from the light source with respect to the plane of the sample surface on the sample stage.

Abstract: Instruments and methods relating to surface plasmon imaging are described. An instrument comprises a semi-circular rail and a driving mechanism. The driving mechanism is attached to a light source mount and a detector mount, and both the light source mount and the detector mount are attached to the semi-circular rail with connectors. Each connector allows the light source mount and detector mount to slide along the rail. The synchronous movement of the light source mount and the detector mount changes the angle of incidence of a light beam from the light source with respect to the plane of the sample surface on the sample stage.

Abstract: Instruments and methods relating to surface plasmon imaging are described. An instrument comprises a semi-circular rail and a driving mechanism. The driving mechanism is attached to a light source mount and a detector mount, and both the light source mount and the detector mount are attached to the semi-circular rail with connectors. Each connector allows the light source mount and detector mount to slide along the rail. The synchronous movement of the light source mount and the detector mount changes the angle of incidence of a light beam from the light source with respect to the plane of the sample surface on the sample stage.