Mark D. Kittel - Berea OH Richard L. Sandt - Brunswick OH Charles K. Herrmann - Cleveland Heights OH Mark Wisniewski - Mentor OH
Assignee:
Avery Dennnison Corporation - Pasadena CA
International Classification:
B32B 2714
US Classification:
428195, 428204, 428207, 428211, 428913, 428914
Abstract:
This invention relates to a thermal transfer laminate, comprising: a facestock comprising a first layer having an upper surface and a lower surface, and a heat-activatable adhesive layer underlying the lower surface of said first layer; an adhesion-promoting layer overlying the upper surface of said first layer; an abrasion-resistant transparent coating layer overlying said adhesion-promoting layer; and another adhesive layer overlying said abrasion-resistant coating layer. In one embodiment, an ink or graphics layer overlies the upper surface of the first layer of the facestock and provides a pictorial design and/or print message. In one embodiment, the laminate is adhered to a carrier sheet. In one embodiment, the laminate is adhered to a substrate such as an automotive interior surface.
Ramabhadran Balaji - Painesville OH Mark Wisniewski - Mentor OH
Assignee:
Avery Dennison Corporation - Pasadena CA
International Classification:
B29D 2200
US Classification:
428 357
Abstract:
This invention relates to an in-mold label comprising a core layer with a first and second surface and a heat seal layer on the first surface of the core layer, wherein the heat seal layer comprises a polyolefin, having a peak melt temperature of less than about 110Â C. and where less than about 25% of the polyolefin melts at a temperature of less than 50Â C. as measured by differential scanning calorimetry. The label may also contain a skin layer on the second surface of the core layer. The invention also relates to plastic substrates bonded to the label. In another aspect, the present invention also relates to a process for in-mold labeling and a process for preparing an in-mold label. The labels and processes provide reduced amounts of one or more of the following: blisters, both before and after bonding, shrinkage, bagginess and gage bands.
Multilayered Thermoplastic Film And Sign Cutting Method Using The Same
This invention relates to a multilayered thermoplastic film comprising: a thermoplastic core layer having a first side and a second side, the core layer comprising: a polyolefin having a density in the range of about 0. 89 to about 0. 97 grams per cubic centimeter; a second polymeric material selected from ionomers derived from sodium, lithium or zinc and an ethylene/methacrylic acid copolymer, and a combination thereof, and a light stabilizer; an abrasion and scuff resistant clear first thermoplastic skin layer overlying the first side of the core layer, and a clear second thermoplastic skin layer overlying the second side of the core layer, both skins containing light stabilizer. The composition of the core layer is different from the composition of the skin layers, and the core layer and the skin layers are characterized by the absence of PVC.
This invention relates to an in-mold label comprising a core layer with a first and second surface and a heat seal layer on the first surface of the core layer, wherein the heat seal layer comprises a polyolefin, having a peak melt temperature of less than about 110 C. and where less than about 25% of the polyolefin melts at a temperature of less than 50 C. as measured by differential scanning calorimetry. The label may also contain a skin layer on the second surface of the core layer. The invention also relates to plastic substrates bonded to the label. In another aspect, the present invention also relates to a process for in-mold labeling and a process for preparing an in-mold label. The labels and processes provide reduced amounts of one or more of the following: blisters, both before and after bonding, shrinkage, bagginess and gage bands.
Thermal Interface Material With Thin Transfer Film Or Metallization
Jason L. Strader - Cleveland OH, US Mark Wisniewski - Mentor OH, US Karen Bruzda - Cleveland OH, US Michael D. Craig - Painesville OH, US
Assignee:
Laird Technologies, Inc. - Earth City MO
International Classification:
B32B 15/08 B32B 37/10 B32B 38/10
US Classification:
428336, 428457, 156233, 2641731, 427294, 42742801
Abstract:
According to various aspects, exemplary embodiments are provided of thermal interface material assemblies. In one exemplary embodiment, a thermal interface material assembly generally includes a thermal interface material having a first side and a second side and a dry material having a thickness of about 0. 0005 inches or less. The dry material is disposed along at least a portion of the first side of the thermal interface material.
Thermal Interface Material With Thin Transfer Film Or Metallization
According to various aspects, exemplary embodiments are provided of thermal interface material assemblies. In one exemplary embodiment, a thermal interface material assembly generally includes a thermal interface material having a first side and a second side and a metallization layer having a layer thickness of about 0. 0005 inches or less. The metallization layer is disposed along at least a portion of the first side of the thermal interface material.
Philip Yi Zhi Chu - Monrovia CA, US Hsiao Ken Chuang - Arcadia CA, US Kejian (Kevin) Huang - Buffalo Grove IL, US Michael Lang - Chagrin Falls OH, US Reza Mehrabi - Tujunga CA, US Ronald F. Sieloff - Chardon OH, US Karen L. Spilizewski - Euclid OH, US Mark Wisniewski - Mentor OH, US
Assignee:
Avery Dennison Corporation - Pasadena CA
International Classification:
H05B 1/02
US Classification:
264481, 264492, 2642978, 264319, 425407, 425348 R
Abstract:
A method of making a microneedle array structure () comprising a plurality of simultaneously formed microneedles (), each microneedle () having a protrusion () and a passageway () extending therethrough. The method comprises the steps of pressing an embossable sheet material between a complimentary tools and radiantly heating the sheet material using radiant energy from a radiant energy source. One tool is relatively-radiantly-transparent, and another tool and/or the sheet material is relatively-radiantly-absorptive.
Directionally Peelable Closures And Articles Using The Same
This invention relates a closure with a directionally peelable opening feature for articles comprising first and second layer of different polymeric films, wherein each layer has an upper and lower surface, the upper surface of the first layer is peelably attached to the lower surface of the second layer at a separation interface, provided that when the closure is used to secure an article, at least one portion of the surface and of the upper surface of the first layer or the lower surface of the second layer is not attached to the container. The invention also relates to a container sealed with the directionally peelable closure. The closure provides a means for providing a strong sealing closure that is directionally peelable requiring little effort. In another aspect the invention provides a means for using a container more than once. In another aspect the invention provides a non-destructible opening feature for the container. This allows the container to be reused multiple times reducing overall packaging costs and providing environmental benefits. Key to this invention is that the incremental cost of achieving this reusability feature over the cost of a one use container is low. This is important because the cost of adding this feature to all packages must be balanced against the savings in total packaging costs when a consumer uses the container a second time. It is important to note that consumer second use of containers is voluntary and will not be %. The lower this incremental cost is the lower the % of voluntary package reuse by consumers can be. Historically in the U.S. overnight couriers have provided these envelopes, boxes, etc. free of charge to their customers. In another aspect the invention is self contained relative to its easy open feature. The tight registration of the pressure sensitive coating is accomplished when the tape is manufactured. As a result of this the registration for dispensing the tape onto the box or envelope is not critical. Additionally, the number of tapes being dispensed is reduced because the tear tape is eliminated. This makes it more commercially feasible to dispense the tape in line with other manufacturing operations in container manufacturing. In another aspect, the invention provides tamper evident and non resealable closure for packages. The inherently separable interface used in this invention cannot be reclosed once it is opened. The individual film layers can be pigmented etc. to further provide visible tamper evidency.
Laird Performance Materials Nov 2015 - Nov 2015
Product Director
Honeywell Nov 2014 - Aug 2015
Global General Manager - Media Product Line
Laird Jan 2012 - Jan 2014
Senior Vice President and General Manager
Laird 2007 - 2012
Global Product Director For Thermal Interface Materials
Avery Dennison 2002 - 2006
Product Development Manager
Education:
Case Western Reserve University 1990
Master of Business Administration, Masters, Business Administration, Business
Ohio University Heritage College of Osteopathic Medicine 1984
Case Western Reserve University 1983
Bachelors, Bachelor of Science
Ohio University Heritage College of Osteopathic Medicine
Case Western Reserve University
Skills:
Product Development Manufacturing Product Management Process Engineering Operations Management Business Development Cross Functional Team Leadership New Business Development Polymers Product Launch Plastics Manufacturing Operations Six Sigma Manufacturing Operations Management Project Management Thermal Management Continuous Improvement Coatings Lean Manufacturing Adhesives Spc Design of Experiments Engineering Electronics Materials Extrusion Coating Plant Management Leadership Team Leadership Strategic Leadership Leadership Development Team Management Organizational Leadership
2012 to 2014 Senior Vice President and General Manager Thermal BU / Thermal Materials BULAIRD PLC Cleveland, OH 2007 to 2014LAIRD PLC
2007 to 2011 Global Product DirectorINNOVEX CORPORATION Eastlake, OH 2006 to 2007 Director of OperationsAVERY DENNISON CORPORATION
2002 to 2006 Product Development ManagerAVERY DENNISON CORPORATION Cleveland, OH 1994 to 2006 Corporate Strategy and New Business DevelopmentAVERY DENNISON CORPORATION
1997 to 2002 Business Development ManagerAVERY DENNISON CORPORATION
1994 to 1997 Painesville Plant ManagerAMERICAN NATIONAL CAN COMPANY
1993 to 1994 Department SupervisorAMERICAN NATIONAL CAN COMPANY Cleveland, OH 1984 to 1994AMERICAN NATIONAL CAN COMPANY
1990 to 1993 Department SupervisorAMERICAN NATIONAL CAN COMPANY
1987 to 1990 Department SupervisorAMERICAN NATIONAL CAN COMPANY
1984 to 1987 Process Engineer/Engineering Manager
Education:
Case Western Reserve University Cleveland, OH 1990 Master of Business AdministrationOhio University Athens, OH 1984 Graduate studiesCase Western Reserve University Cleveland, OH 1983 B.S. in Chemical Engineering
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