President and Founder of ICINTEK LLC since 2003. Marc is a highly experienced hands-on entrepreneur with a demonstrated history of working with start-ups and large corporate environments in advanced materials, semiconductor, sensors, and systems. With an extensive experience managing product development & implementation, manufacturing operations, and growing new business activities globally, working and living abroad, he has successfully led technology businesses from greenfield stage to multi-million dollars in revenue.
Focusing on operations, engineering, and business development; supporting start-ups and IDM’s, for Semiconductors, MEMS, RF, Automotive, Agriculture, and Medical Sensor Devices. Marc has consulted for a variety of worldwide, well-known electronic companies, such as Analog Devices, Dow Corning, Henkel Electronic Materials, SMSC, Tektronix, and UBS to name a few.
Recently, Mr. Papageorge is a participating accredited investor in iOT sensor, and Smart Agri companies. He holds 12 granted patents, 5 pending, 7 engineering awards, and published numerous papers related in the semiconductor, MEMS, nano-materials, and I.C. packaging fields.
We align ourselves with key strategic partners to provide a wide range of legal, operational and international trade compliance support.
A list of Marc Papageorge's patents.
Publication number: 20170131230
Publication Date: May 11, 2017
Type: Application
Some embodiments include an electrochemical sensor. The electrochemical sensor has a lid element comprising a substrate, multiple electrodes, multiple interior contacts electrically coupled to the multiple electrodes, a base element configured to be coupled to the lid element, and an electrolyte element. The base element includes a sensor cavity, multiple exterior contacts located at an exterior surface of the base element, and multiple signal communication channels comprising multiple signal communication lines, and the electrolyte element is located in the sensor cavity. When the lid element is coupled to the base element, the multiple electrodes are located in the sensor cavity, the multiple electrodes are in electrolytic communication with the electrolyte element, the multiple interior contacts are located in the sensor cavity, and the multiple interior contacts are electrically coupled to the multiple exterior contacts by the multiple signal communication lines.
Publication number: 20160189520
Publication Date: June 30, 2016
Type: Application
An electronic device cover system that includes an electronic device cover engageable with an electronic device, a gas sensor coupled to the electronic device cover, and a control circuit communicatively coupled to the gas sensor and communicatively engageable with an electronic device. When the gas sensor detects a presence of a target gas, the control circuit receives a signal output by the gas sensor and outputs a signal receivable by an electronic device.
Publication number: 20140210083
Publication Date: July 31, 2014
Type: Application
In one embodiment, a device package is provided. The device package can include a substrate having first and second opposing surfaces, an opening being formed through the first and second surfaces of the substrate; a stiffener coupled to the first surface of the substrate, the stiffener having an extending portion that extends into the opening of the substrate; and an integrated circuit (IC) die coupled to the extending portion of the stiffener, the IC die being electrically coupled to the substrate.
Publication number: 8686558
Publication Date: April 1, 2014
Type: Grant
In one embodiment, a method for assembling a ball grid array (BGA) package is provided. The method includes providing a stiffener that has opposing first and second surfaces, wherein the first surface is capable of mounting an integrated circuit (IC) die in a central area and forming a pattern in at least a portion of the first surface to enhance the adhesiveness of an encapsulant material to the first surface.
Publication number: 20110318885
Publication Date: December 29, 2011
Type: Application
In one embodiment, a method for assembling a ball grid array (BGA) package is provided. The method includes providing a stiffener that has opposing first and second surfaces, wherein the first surface is capable of mounting an integrated circuit (IC) die in a central area and forming a pattern in at least a portion of the first surface to enhance the adhesiveness of an encapsulant material to the first surface.
Publication number: 8039949
Publication Date: October 18, 2011
Type: Grant
Electrically and thermally enhanced die-up ball grid array (BGA) packages are described. A BGA package includes a stiffener, substrate, a silicon die, and solder balls. The die is mounted to the top of the stiffener. The stiffener is mounted to the top of the substrate. A plurality of solder balls are attached to the bottom surface of the substrate. A top surface of the stiffener may be patterned. A second stiffener may be attached to the first stiffener. The substrate may include one, two, four, or other number of metal layers. Conductive vias through a dielectric layer of the substrate may couple the stiffener to solder balls. An opening may be formed through the substrate, exposing a portion of the stiffener. The stiffener may have a down-set portion. A heat slug may be attached to the exposed portion of the stiffener. A locking mechanism may be used to enhance attachment of the heat slug to the stiffener. The heat slug may be directly attached to the die through an opening in the stiffener.
Publication number: 20100052151
Publication Date: March 4, 2010
Type: Application
Electrically and thermally enhanced die-up ball grid array (BGA) packages are described. A BGA package includes a stiffener, substrate, a silicon die, and solder balls. The die is mounted to the top of the stiffener. The stiffener is mounted to the top of the substrate. A plurality of solder balls are attached to the bottom surface of the substrate. A top surface of the stiffener may be patterned. A second stiffener may be attached to the first stiffener. The substrate may include one, two, four, or other number of metal layers. Conductive vias through a dielectric layer of the substrate may couple the stiffener to solder balls. An opening may be formed through the substrate, exposing a portion of the stiffener. The stiffener may have a down-set portion. A heat slug may be attached to the exposed portion of the stiffener. A locking mechanism may be used to enhance attachment of the heat slug to the stiffener. The heat slug may be directly attached to the die through an opening in the stiffener.
Publication number: 7629681
Publication Date: December 8, 2009
Type: Grant
Electrically and thermally enhanced die-up ball grid array (BGA) packages are described. A BGA package includes a stiffener, substrate, a silicon die, and solder balls. The die is mounted to the top of the stiffener. The stiffener is mounted to the top of the substrate. A plurality of solder balls are attached to the bottom surface of the substrate. A top surface of the stiffener may be patterned. A second stiffener may be attached to the first stiffener. The substrate may include one, two, four, or other number of metal layers. Conductive vias through a dielectric layer of the substrate may couple the stiffener to solder balls. An opening may be formed through the substrate, exposing a portion of the stiffener. The stiffener may have a down-set portion. A heat slug may be attached to the exposed portion of the stiffener. A locking mechanism may be used to enhance attachment of the heat slug to the stiffener. The heat slug may be directly attached to the die through an opening in the stiffener.
Publication number: 6882042
Publication Date: April 19, 2005
Type: Grant
Electrically and thermally enhanced die-up ball grid array (BGA) packages are described. A BGA package includes a stiffener, substrate, a silicon die, and solder balls. The die is mounted to the top of the stiffener. The stiffener is mounted to the top of the substrate. A plurality of solder balls are attached to the bottom surface of the substrate. A top surface of the stiffener may be patterned. A second stiffener may be attached to the first stiffener. The substrate may include one, two, four, or other number of metal layers. Conductive vias through a dielectric layer of the substrate may couple the stiffener to solder balls. An opening may be formed through the substrate, exposing a portion of the stiffener. The stiffener may have a down-set portion. A heat slug may be attached to the exposed portion of the stiffener. A locking mechanism may be used to enhance attachment of the heat slug to the stiffener. The heat slug may be directly attached to the die through an opening in the stiffener.
Publication number: 20050077545
Publication Date: April 14, 2005
Type: Application
Electrically and thermally enhanced die-up ball grid array (BGA) packages are described. A BGA package includes a stiffener, substrate, a silicon die, and solder balls. The die is mounted to the top of the stiffener. The stiffener is mounted to the top of the substrate. A plurality of solder balls are attached to the bottom surface of the substrate. A top surface of the stiffener may be patterned. A second stiffener may be attached to the first stiffener. The substrate may include one, two, four, or other number of metal layers. Conductive vias through a dielectric layer of the substrate may couple the stiffener to solder balls. An opening may be formed through the substrate, exposing a portion of the stiffener. The stiffener may have a down-set portion. A heat slug may be attached to the exposed portion of the stiffener. A locking mechanism may be used to enhance attachment of the heat slug to the stiffener. The heat slug may be directly attached to the die through an opening in the stiffener.
Publication number: 6882042
Publication Date: 2005
Citation: 29
Publication number: 20020135065
Publication Date: September 26, 2002
Type: Application
Electrically and thermally enhanced die-up ball grid array (BGA) packages are described. A BGA package includes a stiffener, substrate, a silicon die, and solder balls. The die is mounted to the top of the stiffener. The stiffener is mounted to the top of the substrate. A plurality of solder balls are attached to the bottom surface of the substrate. A top surface of the stiffener may be patterned. A second stiffener may be attached to the first stiffener. The substrate may include one, two, four, or other number of metal layers. Conductive vias through a dielectric layer of the substrate may couple the stiffener to solder balls. An opening may be formed through the substrate, exposing a portion of the stiffener. The stiffener may have a down-set portion. A heat slug may be attached to the exposed portion of the stiffener. A locking mechanism may be used to enhance attachment of the heat slug to the stiffener. The heat slug may be directly attached to the die through an opening in the stiffener.
Publication number: 5288769
Publication Date: Feb. 22, 1994
Publication number: 5136365
Publication Date: August 4, 1992
An adhesive material 220 including a fluxing agent and metal particles 240 is applied to either a substrate 200 having a metallization pattern 210 or an electrical component 230. The component 230 is positioned on the substrate 210 and heated. During the heating step, the fluxing agent.
Publication number: 5128746
Publication Date: July 7, 1992
An adhesive material 120 including a fluxing agent is applied to either a substrate 100 having a metallization pattern 110 or a solder bumped electrical component 130. The component 130 is positioned on the substrate 110 and the solder bump 140 is reflowed.
Publication number: 5132778
Publication Date: July 21, 1992
An adhesive material 220 including a fluxing agent and metal particles 240 is applied to either a substrate 200 having a metallization pattern 210 or an electrical component 230. The component 230 is positioned on the substrate 210 and heated. During the heating step, the fluxing agent.
Publication number: 5019673
Publication Date: May 28, 1991
A flip-chip package for integrated circuits is provided by over-molding an integrated circuit assembly which includes a flip-chip mounted to a very thin chip carrier. The flip-chip includes an array of bumped pads which fill an array of matching conductive through holes on the chip carrier.