Michael J. Arnost - North Andover MA Alain Bouchard - Boston MA Yongqi Deng - Newton MA Edward J. Dombrowski - Bellingham MA Russell A. Gaudiana - Merrimack NH Serajul Haque - Randolph MA Fariza B. Hasan - Waltham MA John L. Marshall - Lexington MA Stephen J. Telfer - Arlington MA William T. Vetterling - Lexington MA Michael S. Viola - Burlington MA
Assignee:
Polaroid Corporation - Waltham MA
International Classification:
B41M 530
US Classification:
156235, 106 3129, 428195
Abstract:
There is described a thermal recording system which utilizes a donor element comprising a substrate and a thermal transfer material layer having a dye-containing phase which is amorphous and wherein the dye or dyes present in the amorphous phase form a continuous film. Imagewise heating of the medium transfers portions of the transfer layer to a receiver sheet, thus forming an image. The transfer layer may also include a non-dye phase comprising a thermal solvent. During the heating of the donor element, the crystalline thermal solvent melts and dissolves or liquefies at least a portion of the dye-containing phase, thereby lowering the temperature at which transfer of the transfer layer occurs.
Anemarie DeYoung - Lexington MA James A. Foley - Wellesley MA Alfredo G. Kniazzeh - Waltham MA Edward P. Lindholm - Brookline MA Stephen J. Telfer - Arlington MA William T. Vetterling - Lexington MA Michael S. Viola - Burlington MA Hyung-Chul Choi - Lexington MA
Assignee:
Polaroid Corporation - Waltham MA
International Classification:
B41M 530
US Classification:
156235, 428 3239, 428 325
Abstract:
There is described a nanoporous receiver element for use in thermal mass transfer imaging applications. The receiver element comprises a substrate carrying an image-receiving layer comprising particulate material and a binder material. The substrate may comprise a material having a compressibility of at least 1% under a pressure of 1 Newton per mm (1 MPa). Optionally, there may be provided, between the substrate and the nanoporous receiving layer, a layer having a thickness of less than about 50 m which is comprised entirely of a material having a compressibility of less than about 1% under a pressure of 1 MPa. Alternatively, the substrate may comprise only the material having a compressibility of less than about 1% under a pressure of 1 MPa, provided that the thickness of the substrate does not exceed about 50 m. The image-receiving layer comprises particulate material and a binder material, has a void volume of from about 40% to about 70% and a pore diameter distribution wherein at least 50% of the pores having a diameter greater than about 30 nm have diameters less than about 300 nm and at least 95% of the pores having diameters greater than about 300 nm have diameters less than about 1000 nm.
Alain Bouchard - Boston MA, US Brian D. Busch - Sudbury MA, US Daniel P. Bybell - Medford MA, US Anemarie DeYoung - Lexington MA, US Sandra B. Lawrence - Brookline MA, US Michael L. Reisch - Carlisle MA, US Suhail S. Saquib - Shrewsbury MA, US Dana F. Schuh - Windham NH, US Stephen J. Telfer - Arlington MA, US Jay E. Thornton - Watertown MA, US William T. Vetterling - Lexington MA, US Michael S. Viola - Burlington MA, US
Assignee:
Polaroid Corporation - Waltham MA
International Classification:
B41J 237
US Classification:
347188
Abstract:
A thermal printer is disclosed which includes a plurality of thermal print heads, each of the plurality of thermal print heads being operable to print a distinct one of a plurality of colors. The plurality of thermal print heads may print output at a plurality of spatial resolutions. The thermal printer may include dot size varying means for varying perceived levels of color printed by the thermal printer by varying sizes of dots printed by the plurality of thermal print heads. The printer may perform various image processing steps on an image to be printed, such as tone scale adjustment, thermal history control, and common mode voltage correction, to improve the perceived quality of the printed image. The thermal printer may be incorporated into a digital photo-printing vending machine for printing images provided by a customer.
Coated Electrode Particles For Composite Electrodes And Electrochemical Cells
Richard K. Holman - Belmont MA, US Yet Ming Chiang - Framingham MA, US Antoni S. Gozdz - Marlborough MA, US Andrew L. Loxley - Roslindale MA, US Benjamin Nunes - Allston MA, US Michele Ostraat - Whitehouse Station NJ, US Gilbert N. Riley - Marlborough MA, US Michael S. Viola - Burlington MA, US
Assignee:
A123 Systems, Inc. - Watertown MA
International Classification:
H01M 4/02 B23H 3/04
US Classification:
429209, 429217, 429137, 429233, 20429001
Abstract:
Electrodes for use in electrochemical devices are disclosed. More particularly coated electrode particles for use in solid electrochemical cells and materials and systems for improving electronic conductivity and repulsive force characteristics of an electrode network are disclosed. An article containing a plurality of distinct first particles that form an electrode network in which the distinct first particles are coated with a system of electrically conductive material is also disclosed. In some embodiments, the coating layer also includes a low refractive index material. In some embodiments, the coating layer of the electroactive material includes a plurality of second particles.
John C. Warner - Wilmington MA, US Michael S. Viola - Burlington MA, US
Assignee:
Warner Babcock Institute - Wilmington MA
International Classification:
A61Q 5/10
US Classification:
8405, 8406, 8412, 8424, 8431, 8435
Abstract:
Disclosed and claimed herein are a natural coloring formulation for coloring hair, and methods of its use. The coloring formulation includes a catechol-based precursor and an oxidizing agent. Additionally an alkalizing agent may be present. The formulation is substantially free of organic solvents, co-solvents and diluents.
John C. Warner - Wilmington MA, US Michael S. Viola - Burlington MA, US
Assignee:
Warner Babcock Institute for Green Chemistry - Wilmington MA
International Classification:
H01L 29/10 H01L 29/12
US Classification:
257 43
Abstract:
The present disclosure provides for electronic devices that use low cost, conductive materials as transparent conductors. The devices contain corrosion preventative conductive polymer layers and conductive innerlayer barriers that separate corrosive electrolyte from the conductors which are prone to corrosion and dissolution, while providing an uninterrupted electrical circuit. The present disclosure also allows for the use of layers which have been applied from aqueous media thereby reducing both the cost and the environmental impact of the electronic devices. Methods of manufacture are also provided.
Alain Bouchard - Boston MA, US Brian Busch - Sudbury MA, US Daniel Bybell - Medford MA, US Anemarie DeYoung - Lexington MA, US Sandra Lawrence - Brookline MA, US Michael Reisch - Carlisle MA, US Suhail Saquib - Shrewsbury MA, US Dana Schuh - Windham NH, US Stephen Telfer - Arlington MA, US Jay Thornton - Watertown MA, US William Vetterling - Lexington MA, US Michael Viola - Burlington MA, US
Assignee:
Polaroid Corporation
International Classification:
B41J002/355
US Classification:
347/183000
Abstract:
A thermal printer is disclosed which includes a plurality of thermal print heads, each of the plurality of thermal print heads being operable to print a distinct one of a plurality of colors. The plurality of thermal print heads may print output at a plurality of spatial resolutions. The thermal printer may include dot size varying means for varying perceived levels of color printed by the thermal printer by varying sizes of dots printed by the plurality of thermal print heads. The printer may perform various image processing steps on an image to be printed, such as tone scale adjustment, thermal history control, and common mode voltage correction, to improve the perceived quality of the printed image. The thermal printer may be incorporated into a digital photo-printing vending machine for printing images provided by a customer.
The present invention relates to an aqueous inkjet ink composition comprising an aqueous vehicle, a modified pigment, and a comb-branched copolymer dispersant. The modified pigment comprises a pigment having attached at least one organic group, wherein the organic group comprises at least one ionic group, at least one ionizable group, or mixtures thereof, and the comb-branched copolymer dispersant comprises an acrylic polymer segment and a polyalkylene oxide segment. Methods to improve the properties of images printed onto glossy and non-glossy media are also disclosed.
News
AT&T, Inc. (T) CEO Randall Stephenson on Q1 2020 Results - Earnings Call Transcript
0 Earnings Conference Call. At this time, all participants are in a listen-only mode. [Operator Instructions] And as a reminder, this conference is being recorded. I would now like to turn the conference over to our host Michael Viola, Senior Vice President of Investor Relations. Please, go ahead.
Date: Apr 22, 2020
Category: Business
Source: Google
Local gays and Catholics say pope's big change is one of tone
Michael Viola, president of Dignity Philadelphia, a chapter of the nation's oldest organization for LGBT Catholics, said of the pope: "I don't want to say a step, but it's a lean in the right direction."