Abstract: Provided are a component carrier comprising a stack, a method for manufacturing a component carrier, and a package having a component carrier. The stack has an electrically conductive layer and a solder resist layer. The solder resist layer has at least one opening exposing a portion of the electrically conductive layer, and a protective layer is provided on the exposed portion of the electrically conductive layer. The protective layer has an at least substantially plate-shaped central portion having a first thickness distribution and an at least substantially wall-shaped peripheral portion having a second thickness distribution. The central portion at least partially contacts the exposed portion. The peripheral portion is at least partially at an external side of the central portion, and extends least partially in a direction different from a plate extension direction of the central portion, wherein the first thickness distribution is different from the second thickness distribution.

Abstract: A component carrier related body which includes a stack with a plurality of electrically conductive and/or electrically insulating layer structures, and at least two information carrying structures formed vertically displaced on at least two different of the layer structures, wherein at least two of the at least two information carrying structures are laterally displaced in a plan view on the stack.

Abstract: A component carrier related body which includes a stack with a plurality of electrically conductive and/or electrically insulating layer structures, and at least two information carrying structures formed vertically displaced on at least two different of the layer structures, wherein at least two of the at least two information carrying structures are laterally displaced in a plan view on the stack.

Abstract: A method of screen printing on low temperature co-fired ceramic (LTCC) is disclosed that comprises the steps of (i) aligning tape position on the printer table of a screen printer machine for precisely positioning the tape relative to the screen mesh of the screen having a plurality of pattern openings; (ii) adjusting screen printing parameter for setting a printing condition, wherein the squeegee speed is adjusted to 50-100 mm/s; squeegee pressure is 0.05-0.wopa15 MPa; and a gap between the screen and the tape is 0.8-1.0 mm; and (iii) optimizing the screen mesh parameter with stainless steel screen mesh, wherein the screen mesh of the screen is optimized at mesh tension of 22-28 N/cm; mesh angle of 22.5°; thickness of an emulsion of 0.044 mm; mesh wire diameter of 0.028 mm; and screen mesh count of 325 apertures per inch.

Abstract: The present disclosure relates to a multi-layered low temperature co-fired ceramic (LTCC) system on package (SoP) for a millimeter wave optical receiver comprising a top layer, a plurality of first intermediate layers, a plurality of second intermediate layers, and a bottom layer. The top layer further comprises a matching network, passive components, and a signal line disposed on a substrate material, the plurality of first intermediate layers further comprises active amplification components, via holes and a plurality of inner grounding planes that are respectively disposed on a first plurality of LTCC substrates, the plurality of second intermediate layers further comprises a plurality of grounding planes that are respectively disposed on a second plurality of LTCC substrates; and the bottom layer further comprises a grounding plane that is disposed on the bottom surface of the second plurality of LTCC substrates. A method of fabricating the multi-layered LTCC SoP is also described.

Abstract: A method of screen printing on low temperature co-fired ceramic (LTCC) is disclosed that comprises the steps of (i) aligning tape position on the printer table of a screen printer machine for precisely positioning the tape relative to the screen mesh of the screen having a plurality of pattern openings; (ii) adjusting screen printing parameter for setting a printing condition, wherein the squeegee speed is adjusted to 50-100 mm/s; squeegee pressure is 0.05-0.wopa15 MPa; and a gap between the screen and the tape is 0.8-1.0 mm; and (iii) optimizing the screen mesh parameter with stainless steel screen mesh, wherein the screen mesh of the screen is optimized at mesh tension of 22-28 N/cm; mesh angle of 22.5°; thickness of an emulsion of 0.044 mm; mesh wire diameter of 0.028 mm; and screen mesh count of 325 apertures per inch.