Abstract: A negative electrode for a lithium metal battery, a lithium metal battery including the same, and a method of preparing the negative electrode are provided. The negative electrode includes a negative electrode current collector, and a protective layer disposed on the negative electrode current collector. The protective layer includes a first protective layer and a second protective layer disposed between the first protective layer and the negative electrode current collector. The first protective layer includes porous nanostructure particles, and the second protective layer includes polar inorganic particles.

Abstract: A micro light-emitting device includes a support substrate, at least one micro light-emitting element, and a support structure. The support structure includes a bonding layer, an electrically conductive layer, and a protective insulation layer. The micro light-emitting element is supported by the support structure on the support substrate. The micro light-emitting element includes a light-emitting structure and first and second electrodes. First and second contact regions of the first electrode are respectively connected to a supporting post portion of the electrically conductive layer and a surrounding post portion of the protective insulation layer. A production method of the device and use of the element are also disclosed.

Abstract: A mass transfer method includes providing a transfer unit and a semiconductor carrying unit connected therewith, removing an element supporting structure of the semiconductor carrying unit from micro semiconductor elements of the semiconductor carrying unit, partially removing the photosensitive layer to form connecting structures, connecting a package substrate with electrodes of the micro semiconductor elements, breaking the connecting structures to separate the micro semiconductor elements from the transfer substrate. A mass transfer device is also disclosed.

Abstract: A laser diode includes a light-emitting stack, and a distributed Bragg reflection (DBR) cover layer in contact with the light-emitting stack. The light-emitting stack includes an N-type layer, an active layer, and a P-type layer that has a ridged member. The ridged member has an end face including a first inclined surface that inclines with respect to a top surface of the ridged member in an outward and downward direction from the top surface. A contact interface between the ridged member and the DBR cover layer includes the first inclined surface. A method for making the laser diode is also disclosed.

Abstract: A mass transfer method includes providing a transfer unit and a semiconductor carrying unit connected therewith, removing an element supporting structure of the semiconductor carrying unit from micro semiconductor elements of the semiconductor carrying unit, partially removing the photosensitive layer to form connecting structures, connecting a package substrate with electrodes of the micro semiconductor elements, breaking the connecting structures to separate the micro semiconductor elements from the transfer substrate. A mass transfer device is also disclosed.

Abstract: A mass transfer method includes forming a photosensitive layer on a transfer substrate, heating the photosensitive layer at a temperature for the same to be in a partially cured state, disposing micro semiconductor elements on the photosensitive layer in the partially cured state, partially removing the photosensitive layer to form connecting structures, providing a package substrate and metallic support members, subjecting the metallic support members and the micro semiconductor elements to a eutectic process, breaking the connecting structures to separate the micro semiconductor elements from the transfer substrate, and removing the remaining connecting structures from the micro semiconductor elements.

Abstract: A process for packaging at least one component includes the steps of: a) providing a substrate and a packaging material layer, b) forming the packaging material layer into an adhesively semi-cured packaging material layer, c) adhering the adhesively semi-cured packaging material layer to an array, d) providing a packaging unit including at least one eutectic metal bump pair, e) permitting the eutectic metal bump pair to be in contact with at least one electrode pair on the array, f) subjecting the electrode pair to eutectic bonding to the eutectic metal bump pair, g) encapsulating the component by pressing, h) completely curing the adhesively semi-cured packaging material layer, and i) removing the substrate.

Abstract: A light emitting diode (LED) device includes a light emitting epitaxial layer having opposite first and second surfaces and a plurality of microlenses formed on the first surface. The light emitting epitaxial layer includes a first type semiconductor layer defining the first surface, a second type semiconductor layer defining the second surface, and a light emitting layer disposed between the first and second type semiconductor layers and spaced apart from the first and second surfaces. The microlenses are formed on the first surface and formed of a light transmissible substrate for epitaxial growth of the light emitting epitaxial layer. A method for manufacturing the light emitting diode device is also disclosed.

Abstract: A micro light-emitting device includes a support substrate, at least one micro light-emitting element, and a support structure. The support structure includes a bonding layer, an electrically conductive layer, and a protective insulation layer. The micro light-emitting element is supported by the support structure on the support substrate. The micro light-emitting element includes a light-emitting structure and first and second electrodes. First and second contact regions of the first electrode are respectively connected to a supporting post portion of the electrically conductive layer and a surrounding post portion of the protective insulation layer. A production method of the device and use of the element are also disclosed.

Abstract: A mass transfer method includes forming a photosensitive layer on a transfer substrate, heating the photosensitive layer at a temperature for the same to be in a partially cured state, disposing micro semiconductor elements on the photosensitive layer in the partially cured state, partially removing the photosensitive layer to form connecting structures, providing a package substrate and metallic support members, subjecting the metallic support members and the micro semiconductor elements to a eutectic process, breaking the connecting structures to separate the micro semiconductor elements from the transfer substrate, and removing the remaining connecting structures from the micro semiconductor elements.