Abstract:
The present invention provides antibodies or the antigen-binding portion thereof, that bind to stage-specific embryonic antigen 3 (SSEA-3) antigen. Also disclosed herein are pharmaceutical compositions and methods for the inhibition of cancer cells in a subject in need thereof. The pharmaceutical compositions include an antibody or an antigen-binding portion thereof and at least one pharmaceutically acceptable carrier.
Abstract:
Cancer-targeting peptides having a PX1LX2 motif, in which X1 is His or an amino acid residue with a hydrophobic side chain and X2 is Pro, Phe, or Trp. Also disclosed herein are conjugates containing the cancer-targeting peptides and uses thereof in cancer treatment and diagnosis.
Abstract:
Cancer-targeting peptides having a PX1LX2 motif, in which X1 is His or an amino acid residue with a hydrophobic side chain and X2 is Pro, Phe, or Trp. Also disclosed herein are conjugates containing the cancer-targeting peptides and uses thereof in cancer treatment and diagnosis.
Abstract:
A wafer comprising a front surface and a back surface is provided. The wafer further includes a front pattern on the front surface, the front pattern having a plurality of holes. A low-viscosity fluid is formed on the front surface and filled into the holes. Following that, a high-viscosity fluid is formed and filled into the holes by diffusion.
Abstract:
A wafer comprising a front surface and a back surface is provided. The wafer further includes a front pattern on the front surface, the front pattern having a plurality of holes. A low-viscosity fluid is formed on the front surface and filled into the holes. Following that, a high-viscosity fluid is formed and filled into the holes by diffusion.
Abstract:
A brake disc is provided, wherein the brake disc includes: a main body including an inner disc and an outer disc disposed around the inner disc; connection mechanisms arranged on the main body each including a projection and an assembling portion which are assemblable with each other and respectively disposed on the inner and outer discs, the assembling portion including an assembling hole and a polygonal counterbore, the projection being inserted in the assembling hole; and blocking assemblies arranged on the main body each including first and second blocking units, the first and second blocking units blocking the projection in the axial direction, the first blocking unit being partially received in the polygonal counterbore.
Abstract:
An array-type modularized light-emitting diode structure and a method for packaging the structure. The array-type modularized light-emitting diode structure includes a lower substrate and an upper substrate fixed on the lower substrate. A material with high heat conductivity is selected as the material of the upper substrate. The upper substrate is formed with multiple arrayed dents and through holes on the bottom of each dent. A material with high heat conductivity is selected as the material of the lower substrate. The surface of the lower substrate is formed with a predetermined circuit layout card. The bottom face of the upper substrate is placed on the upper face of the lower substrate with the through holes of the dents respectively corresponding to the contact electrodes of the circuit layout card of the lower substrate. Multiple light-emitting diode crystallites are respectively fixed on the bottoms of the dents. Via the through holes, the electrodes of the light-emitting diode crystallites are electrically connected with the contact electrodes. Then the dents of the upper substrate are sealed to prevent the light-emitting diode crystallites from being oxidized.
Abstract:
An array-type modularized light-emitting diode structure and a method for packaging the structure. The array-type modularized light-emitting diode structure includes a lower substrate and an upper substrate fixed on the lower substrate. A material with high heat conductivity is selected as the material of the upper substrate. The upper substrate is formed with multiple arrayed dents and through holes on the bottom of each dent. A material with high heat conductivity is selected as the material of the lower substrate. The surface of the lower substrate is formed with a predetermined circuit layout card. The bottom face of the upper substrate is placed on the upper face of the lower substrate with the through holes of the dents respectively corresponding to the contact electrodes of the circuit layout card of the lower substrate. Multiple light-emitting diode crystallites are respectively fixed on the bottoms of the dents. Via the through holes, the electrodes of the light-emitting diode crystallites are electrically connected with the contact electrodes. Then the dents of the upper substrate are sealed to prevent the light-emitting diode crystallites from being oxidized.