Abstract: An oriented loading system is provided. The oriented loading system includes a substrate, a plurality of wells formed in the substrate, each well having a bottom and sidewalls, a plurality of particles loaded in the wells, wherein the particle comprises a core structure and an inner layer comprising magnetic material partially covering the core structure such that a part of the core structure uncovered by the inner layer is exposed, and a metal layer comprising magnetic material deposited partially in the sidewalls of the wells, wherein the inner layer is attracted by the metal layer such that the exposed core structure is oriented towards the bottom of the well or the inner layer is oriented towards the bottom of the well.

Abstract: An optical sensing module is configured to detect a characteristic of a sample. The optical sensing module includes a light source, a light guide plate, a first cladding layer, a light converging layer, a filter layer, and a plurality of sensors. The light source is configured to provide an exciting beam. Positions of the sensors correspond to positions of the holes. After the exciting beam enters the light guide plate, at least one portion of the exciting beam is transmitted to the sample through a portion of the surface of the light guide plate exposed by the holes, the sample is excited by the exciting beam to emit a signal beam, and the signal beam passes through the light converging layer and the filter layer in an order and travels to the sensors. Another optical sensing module is also provided.

Abstract: An optical sensing module is configured to detect a characteristic of a sample. The optical sensing module includes a light source, a light guide plate, a first cladding layer, a light converging layer, a filter layer, and a plurality of sensors. The light source is configured to provide an exciting beam. Positions of the sensors correspond to positions of the holes. After the exciting beam enters the light guide plate, at least one portion of the exciting beam is transmitted to the sample through a portion of the surface of the light guide plate exposed by the holes, the sample is excited by the exciting beam to emit a signal beam, and the signal beam passes through the light converging layer and the filter layer in an order and travels to the sensors. Another optical sensing module is also provided.

Abstract: An optical sensing module is configured to detect a characteristic of a sample. The optical sensing module includes a light source, a light guide plate, a first cladding layer, a light converging layer, a filter layer, and a plurality of sensors. The light source is configured to provide an exciting beam. Positions of the sensors correspond to positions of the holes. After the exciting beam enters the light guide plate, at least one portion of the exciting beam is transmitted to the sample through a portion of the surface of the light guide plate exposed by the holes, the sample is excited by the exciting beam to emit a signal beam, and the signal beam passes through the light converging layer and the filter layer in an order and travels to the sensors. Another optical sensing module is also provided.

Abstract: An optical sensing module is configured to detect a characteristic of a sample. The optical sensing module includes a light source, a light guide plate, a first cladding layer, a light converging layer, a filter layer, and a plurality of sensors. The light source is configured to provide an exciting beam. Positions of the sensors correspond to positions of the holes. After the exciting beam enters the light guide plate, at least one portion of the exciting beam is transmitted to the sample through a portion of the surface of the light guide plate exposed by the holes, the sample is excited by the exciting beam to emit a signal beam, and the signal beam passes through the light converging layer and the filter layer in an order and travels to the sensors. Another optical sensing module is also provided.

Abstract: An oriented loading system is provided. The oriented loading system includes a substrate, a plurality of wells formed in the substrate, each well having a bottom and sidewalls, a plurality of particles loaded in the wells, wherein the particle comprises a core structure and an inner layer comprising magnetic material partially covering the core structure such that a part of the core structure uncovered by the inner layer is exposed, and a metal layer comprising magnetic material deposited partially in the sidewalls of the wells, wherein the inner layer is attracted by the metal layer such that the exposed core structure is oriented towards the bottom of the well or the inner layer is oriented towards the bottom of the well.

Abstract: A touch display device is provided. A bottom surface of a substrate of a touch panel has a touch area and a connection area. A set of touch electrodes are disposed on the touch area, and a connecting pad is disposed on the connection area to connect the set of touch electrodes. A glue layer is disposed between the surface of the display panel and the touch area. A gap is formed between the surface of a display panel and the connection area. A connecting part of a flexible circuit module is connected to the connecting pad. A bending part has a first end connected to the connecting part and a second end connected to an extension part. The extension part extends out of the gap from the second end. A portion of the extension part, the connecting part, and the bending part are located within the gap.

Abstract: A touch display device is provided. A bottom surface of a substrate of a touch panel has a touch area and a connection area. A set of touch electrodes are disposed on the touch area, and a connecting pad is disposed on the connection area to connect the set of touch electrodes. A glue layer is disposed between the surface of the display panel and the touch area. A gap is formed between the surface of a display panel and the connection area. A connecting part of a flexible circuit module is connected to the connecting pad. A bending part has a first end connected to the connecting part and a second end connected to an extension part. The extension part extends out of the gap from the second end. A portion of the extension part, the connecting part, and the bending part are located within the gap.

Abstract: A method for manufacturing a biochip is provided. First, a first self-assembled monolayer is coated on a substrate. Next, a plurality of first biomedical molecular dots are formed on the first self-assembled monolayer by micro-titration technique. After the bonding reaction between the first biomedical molecular point and the first self-assembled monolayer, a second self-assembled monolayer is deposited on the surface of the first self-assembled monolayer by evaporation. The second self-assembled monolayer attached on the plurality of first biomedical molecular dots and the first self-assembled monolayer not bonded to the substrate are removed, so that the first biomedical molecular dots immobilized on the first self-assembled monolayer are exposed. Finally, a second biomedical molecular layer is immobilized on the exposed portions of the first biomedical molecular dots.

Abstract: A manufacture method for a magnesium alloy product includes steps of: providing a mold comprising a upper mold and a lower mold, the upper mold having a punch, the lower mold having a cavity, the punch being adapted to be accommodated in the cavity; heating the mold so as to increase the temperature of the cavity to a determined degree; placing a magnesium alloy billet in the heated cavity; and compressing the upper and lower molds so as to drive the punch to deform the magnesium alloy billet to a magnesium alloy product having a shape corresponding to the cavity. The punch in the cavity and an inner wall of the cavity are configured to have a gap of 0.05 mm˜0.1 mm.

Abstract: A package structure for solid-state lighting with low thermal resistance is revealed. A solid-state light is set on a circuit board with high thermal conductivity. A connection layer is used for binding the circuit board with high thermal conductivity and the heat sink substrate. A first attachment layer is set between the heat sink substrate and the connection layer; and a second attachment is set between the connection layer and the circuit board with high thermal conductivity. The connection layer is made of metals or metallic composite materials with high heat dissipation and low thermal expansion coefficients. Thereby, the thermal resistance is lower than the structures according to the prior art. In addition, the thermal stress produced between the heat sink substrate and the circuit board with high thermal conductivity can be buffered by the connection layer for increasing lifetime of the package structure according to the present invention.

Abstract: A lamp device includes a lamp housing embedded in an automobile body. The lamp housing has an outer housing part coupled to and disposed outwardly around an inner housing part. The outer housing part has a thermal conductivity coefficient less than that of the inner housing part. A transparent lamp cap is mounted to the lamp housing, is exposed from the automobile body, and cooperates with the inner housing part of the lamp housing to define a first inner space therebetween. A lighting module is disposed in the first inner space, and includes at least one light emitting diode.

Abstract: A method for manufacturing a biochip is provided. First, a first self-assembled monolayer is coated on a substrate. Next, a plurality of first biomedical molecular dots are formed on the first self-assembled monolayer by micro-titration technique. After the bonding reaction between the first biomedical molecular point and the first self-assembled monolayer, a second self-assembled monolayer is deposited on the surface of the first self-assembled monolayer by evaporation. The second self-assembled monolayer attached on the plurality of first biomedical molecular dots and the first self-assembled monolayer not bonded to the substrate are removed, so that the first biomedical molecular dots immobilized on the first self-assembled monolayer are exposed. Finally, a second biomedical molecular layer is immobilized on the exposed portions of the first biomedical molecular dots.

Abstract: A pyroelectric swirl indicator for measurement of swirl in flowing fluid comprising at least one pyroelectric substrate having at least one surface to which is applied a fluctuating heat input, the fluctuating heat input causing a fluctuating surface charge distribution in response to temperature fluctuations of the substrate. Spaced apart conductor elements for sensing the fluctuating surface charge on the surface of the substrate in the vicinity of the spaced apart conductor elements are provided, the differences in the charge fluctuations between the spaced apart conductor elements comprising an indication of swirl flow in the fluid, said spaced apart conductor elements disposed in a manner which enables measurement of orthogonal components of fluid flow.

Abstract: A system and method for simultaneous measurement of thermal conductivity and the mass flow of a fluid comprising two conduits arranged in a concentric or bypass arrangement through which the fluid is flowing, a pyroelectric anemometer disposed within each of the two conduits, and a differential amplifier connected to each of the pyroelectric anemometers which generate a signal based upon flow of fluid through the conduits.