@booklet {Gastaldi2021-vb,
	title = {Functional Dyes in Polymeric 3D Printing: Applications and Perspectives},
	howpublished = {ACS Materials Letters},
	volume = {3},
	number = {1},
	year = {2021},
	month = {jan},
	pages = {1{\textendash}17},
	publisher = {American Chemical Society},
	abstract = {Three-dimensional printing (3DP) is considered among the key-technologies for the next industrial revolution, with considerable effects on production processes, economy, and society. In this context, the most relevant part of the market consists of polymeric 3D printing. The 3D printable liquids are composed of various components, among them dyes are usually underrated because they are introduced merely for aesthetical reasons or to enhance the objects{\textquoteright} resolution. In recent years, the capability of specific dyes to go beyond conventional use and to confer functional properties to 3D printed objects has become an emerging research area. Modifying elastic moduli upon light irradiation, inducing optical and emitting properties in the matrices or conferring temperature responsivity are just few examples of innovative stimuli-responsive materials that can be produced by combining well-designed dyes with the appropriate 3DP printed matrices. In this Review, we discuss and critically analyze the most relevant recent results achieved in the use of smart dyes in the synthesis of stimuli responsive 3D printed polymers.},
	author = {Gastaldi, Matteo and Cardano, Francesca and Zanetti, Marco and Viscardi, Guido and Barolo, Claudia and Bordiga, Silvia and Magdassi, Shlomo and Fin, Andrea and Roppolo, Ignazio}
}
@booklet {Waiskopf2021-us,
	title = {Quantum Photoinitiators: Toward Emerging Photocuring Applications},
	howpublished = {Journal of the American Chemical Society},
	volume = {143},
	number = {2},
	year = {2021},
	month = {jan},
	pages = {577{\textendash}587},
	publisher = {American Chemical Society},
	abstract = {Semiconductor nanocrystals are promising photocatalysts for a wide range of applications, ranging from alternative fuel generation to biomedical and environmental applications. This stems from their diverse properties, including flexible spectral tunability, stability, and photocatalytic efficiencies. Their functionality depends on the complex influence of multiple parameters, including their composition, dimensions, architecture, surface coating, and environmental conditions. A particularly promising direction for rapid adoption of these nanoparticles as photocatalysts is their ability to act as photoinitiators (PIs) for radical polymerization. Previous studies served to demonstrate the proof of concept for the use of quantum confined semiconductor nanocrystals as photoinitiators, coining the term Quantum PIs, and provided insights for their photocatalytic mechanism of action. However, these early reports suffered from low efficiencies while requiring purging with inert gases, use of additives, and irradiation by high light intensities with very long excitation durations, which limited their potential for real-life applications. The progress in nanocrystal syntheses and surface engineering has opened the way to the introduction of the next generation of Quantum PIs. Herein, we introduce the research area of nanocrystal photocatalysts, review their studies as Quantum PIs for radical polymerization, from suspension polymerization to novel printing, as well as in a new family of polymerization techniques, of reversible deactivation radical polymerization, and provide a forward-looking view for the challenges and prospects of this field.},
	author = {Waiskopf, Nir and Magdassi, Shlomo and Banin, Uri}
}
@booklet {Shlomo2020-sd,
	title = {Formulated Cannabis Oil Powder By Nanoemulsifycation, Methods Of Producing And Uses Thereof},
	year = {2020},
	month = {mar},
	abstract = {The invention discloses particular water-dispersible solid formulation of a cannabinoid or a cannabis extract , wherein they are present in the form of a nanoemulsion , and upon dispersion in water said formulation produces nanoparticles (droplets of a submicron size) with an average size of up to about 500 nm. The present disclosure further relates to methods of making thereof , as well as therapeutic applica tions in humans for treating disorders and broader applica tion for a range of medical conditions .},
	author = {Shlomo, Magdassi and Liraz, Larush and Rafael, Ezra}
}
@booklet {Magdassi2017-aq,
	title = {Particulate photoinitiators and uses thereof},
	howpublished = {PCT Int. Appl.},
	number = {WO2017090038A2},
	year = {2017},
	month = {jul},
	abstract = {The invention provides a novel class of solid water-dispersible powders, comprising a plurality of water-insol. photoinitiators in nanoparticle forms for use in water-based ink formulations. [on SciFinder(R)]},
	keywords = {water insol photoinitiators nanoparticle form wate},
	author = {Magdassi, Shlomo and Larush, Liraz and Cooperstein, Ido and Ashok Pawar, Amol}
}
@booklet {7771,
	title = {Patterns of fluorescent seeded nanorods.},
	howpublished = {PCT Int. Appl.},
	number = {WO2016009431A1},
	year = {2016},
	note = {CAPLUS AN 2016:107598(Patent)},
	month = {2016/01/21/},
	pages = {46pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem Ltd, Israel .},
	abstract = {The invention provides novel means for fabricating patterns and objects comprising nanorods, while reducing inter-particle interaction. [on SciFinder(R)]},
	keywords = {core shell fluorescent indicator nanoparticle seeded nanorod inkjet printing},
	author = {Banin, Uri and Magdassi, Shlomo and Shemesh, Shai and Halivni, Shira and Vinetsky, Yelena.}
}
@booklet {3959,
	title = {Electrochromic device.},
	howpublished = {PCT Int. Appl.},
	number = {WO2015038067A1},
	year = {2015},
	note = {CAPLUS AN 2015:461548(Patent)},
	month = {2015/03/19/},
	pages = {60pp.},
	publisher = {Nanyang Technological University, Singapore; Yissum Research Development Company of the Hebrew University of Jerusalem, Ltd. .},
	abstract = {A method of manufg. an electrochromic device is provided. The method includes providing a patterned arrangement of an elec. conductive material; and applying one or more layers of an electrochromic material to the patterned arrangement, wherein at least a portion of the electrochromic material is in elec. contact with the elec. conductive material. An electrochromic device and an electrochromic ink compn. are also provided. [on SciFinder(R)]},
	keywords = {electrochromic device ink transparent conductive material},
	author = {Magdassi, Shlomo and Lee, Pooi See and Kamyshny, Alexander and Mandler, Daniel and Darmawan, Peter and Layani, Michael.}
}
@booklet {25085,
	title = {Inks containing metal precursors nanoparticles},
	howpublished = {United States},
	number = {US20150056426},
	year = {2015},
	month = {2015/06//},
	abstract = {The present invention provides novel ink formulations based on metal salts and metal complexes.},
	keywords = {conductive pattern oxidation sheet resistance, metal salt complex precursor nanoparticle ink cond},
	author = {Grouchko, Michael and Magdassi, Shlomo}
}
@booklet {Grouchko2015-vn,
	title = {Inks containing metal precursors nanoparticles},
	howpublished = {United States},
	number = {US20150056426},
	year = {2015},
	month = {jun},
	abstract = {The present invention provides novel ink formulations based on metal salts and metal complexes.},
	keywords = {conductive pattern oxidation sheet resistance, metal salt complex precursor nanoparticle ink cond},
	author = {Grouchko, Michael and Magdassi, Shlomo}
}
@booklet {4630,
	title = {Methods for fabricating 3-dimentional scintillators.},
	howpublished = {PCT Int. Appl.},
	number = {WO2015118533A1},
	year = {2015},
	note = {CAPLUS AN 2015:1310851(Patent)},
	month = {2015/08/13/},
	pages = {32pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem Ltd., Israel .},
	abstract = {The methods of the invention permit design modalities which are currently unavailable in the printing of scintillating materials and objects, significantly reducing difficulties assocd. with manuf. of scintillating materials, decrease development time and assocd. costs. [on SciFinder(R)]},
	keywords = {three dimentional scintillator},
	author = {Ron, Guy and Magdassi, Shlomo and Cooperstein, Ido and Layani, Michael and Mishnayot, Yonatan.}
}
@booklet {3958,
	title = {Process for controlling wettability features using a novel ink formulation.},
	howpublished = {PCT Int. Appl.},
	number = {WO2015083160A2},
	year = {2015},
	note = {CAPLUS AN 2015:980351(Patent)},
	month = {2015/06/11/},
	pages = {51pp.},
	publisher = {ClearJet Ltd., Israel .},
	abstract = {The invention provides a process of forming a continuous pattern on a surface composed of two or more surface regions, each of the regions being of a different surface energy, the process utilizing a novel ink formulation for printing on such multi-region surfaces. [on SciFinder(R)]},
	keywords = {wettability control ink formulation},
	author = {Grouchko, Michael and Magdassi, Shlomo.}
}
@booklet {4629,
	title = {Spectrally selective solar thermal coating combining a light-absorbing coating and an infrared reflecting layer positioned on top of the absorber coating.},
	howpublished = {PCT Int. Appl.},
	number = {WO2015136531A2},
	year = {2015},
	note = {CAPLUS AN 2015:1505573(Patent)},
	month = {2015/09/17/},
	pages = {76pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem Ltd, Israel; Nanyang Technological University .},
	abstract = {The invention relates to a light-absorbing element coated on at least a region of its surface with a film of at least one light-absorbing material, the light-absorbing material being assocd. with at least one binder material, the film being 1 - 20 μm thick and having light absorption of at least 90\%. The invention also relates to a device comprising a light-absorbing element. The invention also claims a thermosolar device comprising a light-absorbing element. The invention also relates to a method of fabricating a light-absorbing film on a surface region of a substrate, the method comprising: (a) forming on a surface region at least one absorbing layer comprising: (I) a light-absorbing material; and (II) a polymerizable binder resin; (b) heating the at least one absorbing layer to induce polymn. of the binder resin; and (c) optionally forming at least one IR radiation reflecting layer on the polymd. binder. [on SciFinder(R)]},
	keywords = {light absorbing IR reflective coating solar absorber polysiloxane ceramic},
	author = {Magdassi, Shlomo and Zwicker, Camille and Mhaisalkar, Subodh Gautam and Mandler, Daniel and Levi, Lihi and Azoubel, Suzanna.}
}
@booklet {Pialphapialphazetataueta2014-tn,
	title = {$A$ναπαράσταση περι$o$δι${\k a}ppa$ής δ$o$μής ι${\k a}ppa$ριωμάτων ανάπτυξης ιστών για ${\k a}ppa$ατασ${\k a}ppa$ευή σε 3D printers},
	number = {January},
	year = {2014},
	pages = {2018},
	abstract = {Even the best artists struggle to show us what real-world objects look like in all their three-dimensional (3D) glory. Most of the time that doesn{\textquoteright}t matter{\textendash}-looking at a photo or sketch gives us a good-enough idea. But if you{\textquoteright}re in the business of developing new products and you need to show them off to clients or customers, nothing beats having a prototype: a model you can touch, hold, and feel. Only trouble is, models take ages to make by hand and machines that can make {\textquoteleft}{\textquoteleft}rapid prototypes{\textquoteright}{\textquoteright} cost a fortune (up to a half million dollars). Hurrah, then for 3D printers, which work a bit like inkjets and build up 3D models layer by layer at up to 10 times the speed and a fifth the cost. How exactly do they work? Let{\textquoteright}s take a closer look!},
	author = {Παπαζέτης, γεώργι$o$ς}
}
@booklet {3963,
	title = {Compositions comprising near-infrared fluorescent particles and uses thereof for imaging activated immune cells in the CNS.},
	howpublished = {PCT Int. Appl.},
	number = {WO2014002100A1},
	year = {2014},
	note = {CAPLUS AN 2014:15471(Patent)},
	month = {2014/01/03/},
	pages = {47pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem Ltd., Israel; Hadasit Medical Research Services and Development Ltd.; Tel Hashomer Medical Research, Infrastructure and Service Ltd.; Drexel University .},
	abstract = {Pharmaceutical compn. comprising nanoparticles configured for enhanced phagocytosis by phagocytic cells and labeled with a near-IR (NIR) fluorescent probe bound to the outer surface thereof are provided, and uses thereof in the detection of activated immune cells in the central nervous system (CNS) of a subject. [on SciFinder(R)]},
	keywords = {compn comprising near IR fluorescence particle imaging immune cell},
	author = {Eyal, Sara and Magdassi, Shlomo and Portnoy, Emma and Zauberman, Jacob and Polyak, Boris and Golenser, Jacob and Mardor, Yael and Ekstein, Dana.}
}
@booklet {3960,
	title = {High absorptivity, heat resistant coatings and related apparatus and methods.},
	howpublished = {U.S. Pat. Appl. Publ.},
	number = {US20140326236A1},
	year = {2014},
	note = {CAPLUS AN 2014:1872025(Patent)},
	month = {2014/11/06/},
	pages = {20pp.},
	publisher = {Brightsource Industries Israel Ltd., Israel; Yissum Research Development Company of the Hebrew University of Jerusalem .},
	abstract = {A paint formulation can include an inorg. oxide-based pigment and an org. binder. The org. binder can be irreversibly converted to an inorg. binder upon curing of the paint formulation at a temp. greater than 200{\textdegree} C. The oxide-based pigment and/or the paint formulation itself can have an absorptivity of at least 80\% with respect to the AM 1.5 spectrum. The paint formulation can also include at least one org. solvent, an inorg. filler, and/or at least one additive. Such paint formulations may be stable at high temps. (e.g., 750{\textdegree} C.) and can be used as solar-radiation-absorbing heat-resistant coatings for components of a solar tower system. [on SciFinder(R)]},
	keywords = {high absorptivity heat resistant coating app method},
	author = {Magdassi, Shlomo and Mandler, Daniel and Baidossi, Mubeen and Larush, Liraz and Zwicker, Camille and Nirenberg, Anna and Binyamin, Yaniv.}
}
@booklet {3962,
	title = {Solar-radiation-absorbing formulations, application of paint, painted metal article and related apparatus.},
	howpublished = {U.S. Pat. Appl. Publ.},
	number = {US20140141236A1},
	year = {2014},
	note = {CAPLUS AN 2014:830676(Patent)},
	month = {2014/05/22/},
	pages = {19pp.},
	publisher = {BrightSource Industries Ltd., Israel .},
	abstract = {Paint formulations having a high absorptivity with respect to solar radiation are described. The paint formulations are also thermally and mech. durable, enabling the paint formulations to be used on components in solar thermal applications where exposure to high temps. and environmental conditions may be an issue. The paint formulation can include an oxide-based pigment, an org. binder, >=1 additives, an inorg. filler, and/or an org. solvent. The pigment can have a relatively high absorptivity with respect to light having a wavelength in the range 250-3000 nm. Curing of the paint formulation can irreversibly convert the org. binder into an inorg. binder. [on SciFinder(R)]},
	keywords = {ceramic oxide pigment paint solar radiation absorbing},
	author = {Magdassi, Shlomo and Mandler, Daniel and Baidossi, Mubeen and Assa, Rachel and Chernin, Ophir and Binyamin, Yaniv.}
}
@booklet {3961,
	title = {Three-dimensional conductive patterns and inks for making same.},
	howpublished = {PCT Int. Appl.},
	number = {WO2014118783A1},
	year = {2014},
	note = {CAPLUS AN 2014:1277458(Patent)},
	month = {2014/08/07/},
	pages = {71pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem Ltd., Israel .},
	abstract = {The invention generally relates to polymerizable conductive ink formulations comprising at least one metal source, at least one monomer and/or oligomer and a polymn. initiator, and uses thereof for printing three-dimensional functional structures. In particular a method of fabricating a three-dimensional conductive pattern on a substrate is disclosed, the method comprising: (a) forming a pattern on a surface region of a substrate by using an ink comprising at least one metal source, at least one liq. polymerizable monomer and/or oligomer, and at least one polymn. initiator; (b) polymg. at least a portion of said liq. monomer and/or oligomer; (c) rendering the metal source a continuous percolation path for elec. cond. (sintering); (d) repeating steps (a), (b) and optionally (c) to obtain a three-dimensional conductive pattern. [on SciFinder(R)]},
	keywords = {three dimensional conductive pattern metal monomer oligomer polymn},
	author = {Magdassi, Shlomo and Shapira, Amir and Layani, Michael and Cooperstein, Ido.}
}
@booklet {3965,
	title = {Dispersions in oil of Dead Sea nano sized material preparation and uses thereof in topical application.},
	howpublished = {U.S. Pat. Appl. Publ.},
	number = {US20130236571A1},
	year = {2013},
	note = {CAPLUS AN 2013:1417149(Patent)},
	month = {2013/09/12/},
	pages = {26pp.},
	publisher = {Dead Sea Laboratories Ltd., Israel; Yissum Research Development Company of the Hebrew University of Jerusalem Ltd. .},
	abstract = {The present disclosure is directed to dispersions of a Dead Sea material in oil, the Dead Sea material is present in the dispersions in the form of solid nanoparticles. Further disclosed are formulations comprising the dispersions, method of treating and/or preventing diseases or disorders of the skin comprising topical application of the dispersions or formulations thereof onto a skin of a subject, method of inducing a heat sensation on the skin of a subject by topically applying the dispersions or formulations thereof onto a skin of a subject and methods of prepg. the dispersions. Thus, an oil phase was prepd. by dissolving 1.8 g (9 wt\%) Abil Em 90 in 11.48 g (57.4 wt\%) cyclomethicone, 1 g (5 wt\%) DOW 9041, 0.02 g (0.1 wt\%) Vitamin E Acetate and 0.2 g (1 wt\%) Retinyl palmitate mixt.; an aq. phase was prepd. by adding a 0.5 g (2.5 wt\%) Dead Sea water (40 \% dead sea salt, 1 \% DSS final concn.) to 4.2 g (21 wt\%) deionized water, 0.2 g (1 wt\%) glycerol, 0.4 g (2 wt\%) 1,3-propane diol and 0.2 g (1 wt\%) PVP (MW = 40000); the total wt. of water and oil phase was 20 g; the aq. phase was added to the oil phase while being mixed for 10 min with a high speed homogenizer at a speed of 13000 rpm with or without addnl. sonication; the nanoparticles were obtained by water evapn. at reduced pressure (15 mbar, 50 {\textdegree}C for 40 min); the nanoparticles size obtained in the two processes, with and without sonication, measured by DLS was 99 nm and 255 nm, resp. [on SciFinder(R)]},
	keywords = {Dead Sea oil nanoparticle dispersion topical skin heat sensation},
	author = {Magdassi, Shlomo and Larush, Liraz and Mendelson, Chani and Oron, Miriam and Maor, Zeevi and Afriat-Staloff, Isabelle Rachel and Privorotski, Marina.}
}
@booklet {3966,
	title = {Inks containing metal precursor nanoparticles for forming a conductive pattern having high oxidation resistance at ambient atmosphere.},
	howpublished = {PCT Int. Appl.},
	number = {WO2013128449A2},
	year = {2013},
	note = {CAPLUS AN 2013:1384077(Patent)},
	month = {2013/09/06/},
	pages = {30pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem Ltd., Israel .},
	abstract = {Disclosed are novel ink formulations based on metal salts and metal complexes dispersed in a suitable liq. carrier. Also disclosed are a method of forming a printing formulation, a process for forming a conductive pattern on a surface region of a substrate using the printing formulation, and a conductive pattern obtainable by the process, wherein said conductive pattern has high oxidn. resistance at ambient atm and low sheet resistance. [on SciFinder(R)]},
	keywords = {conductive pattern oxidn sheet resistance, metal salt complex precursor nanoparticle ink conductive pattern},
	author = {Grouchko, Michael and Magdassi, Shlomo.}
}
@booklet {3964,
	title = {Pomegranate oil for preventing and treating neurodegenerative diseases.},
	howpublished = {PCT Int. Appl.},
	number = {WO2013160896A1},
	year = {2013},
	note = {CAPLUS AN 2013:1698216(Patent)},
	month = {2013/10/31/},
	pages = {52pp.},
	publisher = {Hadasit Medical Research Services and Development Ltd., Israel; Yissum Research Development Company of the Hebrew University of Jerusalem Ltd. .},
	abstract = {The present invention relates to the use of pomegranate seed oil and fractions thereof for preventing and treating neurodegenerative diseases. Particularly, the present invention relates to emulsions of the pomegranate oil or fractions thereof for the prevention and treatment of brain diseases, including Creutzfeldt-Jacob disease (CJD) and multiple sclerosis (MS). The pomegranate seed oil or fraction thereof is administered in a form of an emulsion as a medical food, a functional food, a food additive, or a dietary supplement. A self-emulsifying drug delivery system (SEDDS) comprising pomegranate seed oil 31.46\%, Tween 80 44\%, Span 80 19.5\%, and ethanol 4.97\% was exemplified. Also, pomegranate oil and punicic acid significantly inhibited the toxic effect of copper in a transgenic mouse model of genetic prion disease, as measured by elevated percentage of cell survival. [on SciFinder(R)]},
	keywords = {pomegranate seed oil emulsion neuroprotectant neurodegenerative disease},
	author = {Gabizon, Ruth and Ovadia, Haim and Abramsky, Oded and Magdassi, Shlomo and Larush, Liraz.}
}
@booklet {3830,
	title = {Organic nanoparticles obtained from microemulsions by solvent evaporation.},
	howpublished = {PCT Int. Appl.},
	number = {WO2008032327A2},
	year = {2008},
	note = {CAPLUS AN 2008:352954(Patent)},
	month = {2008/03/20/},
	pages = {42pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem, Israel .},
	abstract = {The invention provides a redispersible powder and aq. dispersions comprising nanoparticles of water insol. org. compds. The invention further provides methods for prepg. the redispersible powder and the aq. dispersion, wherein the methods comprise prepn. of an oil-in-water microemulsion and solvent removal. Thus, an oil-in-water microemulsion was prepd. contg. sodium dodecyl sulfate (SDS) 8 \%, Bu acetate 3.5 \%, 2-propanol 3.5 \%, water 82 \% and Pr paraben 3 \%. [on SciFinder(R)]},
	keywords = {statin polymer nanoparticle microemulsion},
	author = {Magdassi, Shlomo and Netivi, Hadas and Goshen, Katrin.}
}
@booklet {3831,
	title = {Pesticide nanoparticles obtained from microemulsions and nanoemulsions.},
	howpublished = {PCT Int. Appl.},
	number = {WO2008032328A2},
	year = {2008},
	note = {CAPLUS AN 2008:352699(Patent)},
	month = {2008/03/20/},
	pages = {45pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem, Israel; Makhteshim Chemical Works Ltd. .},
	abstract = {The invention provides a redispersible powder and aq. dispersions comprising nanoparticles of water insol. org. pesticides. The invention further provides methods for prepg. the redispersible powder and the aq. dispersion, wherein the methods comprise prepn. of an oil-in-water nanoemulsion or microemulsion and solvent removal. The invention also provides pesticidal compns. comprising the redispersible powder and/or aq. dispersions. [on SciFinder(R)]},
	keywords = {pesticide nanoparticle microemulsion nanoemulsion},
	author = {Magdassi, Shlomo and Dayan, Benny and Levi-Ruso, Ganit.}
}
@booklet {3835,
	title = {Compositions and methods for in vitro sorting of molecular and cellular libraries in water-in-oil-in-water emulsions.},
	howpublished = {U.S. Pat. Appl. Publ.},
	number = {US20070077572A1},
	year = {2007},
	note = {CAPLUS AN 2007:383953(Patent)},
	month = {2007/04/05/},
	pages = {61pp., Cont.-in-part of Appl. No. PCT/IL2004/001079.},
	publisher = {Yeda Research and Development Co. Ltd., Israel; Yissum Research Development Company the Hebrew University of Jerusalem; Medical Research Council .},
	abstract = {The present invention provides an in vitro system for compartmentalization of mol. or cellular libraries and provides methods for selection and isolation of desired mols. or cells from the libraries. The library includes a plurality of distinct mols. or cells encapsulated within a water-in-oil-in-water emulsion. The emulsion includes a continuous external aq. phase and a discontinuous dispersion of water-in-oil droplets. The internal aq. phase of a plurality of such droplets comprises a specific mol. or cell that is within the plurality of distinct mols. or cells of the library. Thus, for example, mutants with improved β-galactosidase activity can be selected from a random mutagenesis library of evolved β-galactosidase lacZ gene using a double emulsion selection system. [on SciFinder(R)]},
	keywords = {cell mol library sorting water oil emulsion, gene library sorting water oil emulsion droplet},
	author = {Tawfik, Dan and Bernath, Kalia and Aharoni, Amir and Peisajovich, Sergio and Griffiths, Andrew D. and Mastrobattista, Enrico and Magdassi, Shlomo.}
}
@booklet {3837,
	title = {Ink providing etch-like effect for printing on ceramic surfaces.},
	howpublished = {PCT Int. Appl.},
	number = {WO2007036942A2},
	year = {2007},
	note = {CAPLUS AN 2007:383548(Patent)},
	month = {2007/04/05/},
	pages = {38pp.},
	publisher = {Dip Tech. Ltd., Israel; Yissum Research Development Company of the Hebrew University of Jerusalem .},
	abstract = {The invention relates to an ink-jet ink compn. for printing on a ceramic substrate comprising: (a) a liq. vehicle; (b) sub-micron particles of binding compn. having a m.p. below 6000C; and (c) sub-micron particles causing an etch-like effect, said sub-micron particles are selected from metal oxide particles, high m.p. frit particles, and a combination thereof, said sub-micron particles causing an etch-like effect have a m.p. of at least 500C above the m.p. of said sub-micron particles of binding compn. The invention further relates to a printing process using such ink and to a ceramic substrate printed with a pattern or image having an etch-like effect, by means of the printing process. [on SciFinder(R)]},
	keywords = {metal oxide particle jet ink ceramic substrate},
	author = {Eron, Gera and Feinschmidt, Avi and Magdassi, Shlomo and Vinetsky, Yelena and Liraz, Eliane.}
}
@booklet {3842,
	title = {Aqueous-based dispersions of metal nanoparticles for use in conductive inks.},
	howpublished = {PCT Int. Appl.},
	number = {WO2006072959A1},
	year = {2006},
	note = {CAPLUS AN 2006:673941(Patent)},
	month = {2006/07/13/},
	pages = {52 pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem, Israel .},
	abstract = {The invention relates to a method for prepg. an aq.-based dispersion of metal nanoparticles comprising: (a) pre-reducing a metal salt suspension by a H2O sol. polymer capable of metal redn. to form a metal nuclei; and (b) adding a chem. reducer to form metal nanoparticles in dispersion. The invention further relates to aq.-based dispersions of metal nanoparticles, and to compns. such as inks comprising such dispersions. [on SciFinder(R)]},
	keywords = {aq dispersion metal nanoparticle conductive ink},
	author = {Magdassi, Shlomo and Kamyshny, Alexander and Aviezer, Shai and Grouchko, Michael.}
}
@booklet {3840,
	title = {A chewing gum for preventing tooth decay.},
	howpublished = {PCT Int. Appl.},
	number = {WO2006090375A1},
	year = {2006},
	note = {CAPLUS AN 2006:888424(Patent)},
	month = {2006/08/31/},
	pages = {22pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem, Israel; Strauss-Elite Ltd. .},
	abstract = {Organoleptically acceptable chewing gums (composed of a gum base, at least one edible acid, and optionally other ingredients) are characterized by high adherence to plaque bacteria. Thus, a ratio between gum base and malic acid of 60:1.8 may be used. A method for prepg. the chewing gum includes triturating a coloring agent (e.g., carmoisine). A method for com. producing and marketing the chewing gums includes testing the chewing gums for adhesion to bacteria, such as plaque bacteria. [on SciFinder(R)]},
	keywords = {chewing gum malate tooth decay prevention},
	author = {Steinberg, Doron and Magdassi, Shlomo and Kamyshny, Alexander and Zegerman, Haim and Letzter, Arieh.}
}
@booklet {3844,
	title = {Directed evolution of protein inhibitors of DNA-nucleases by in vitro compartmentalization (IVC) and nano-droplet delivery.},
	howpublished = {PCT Int. Appl.},
	number = {WO2006051552A2},
	year = {2006},
	note = {CAPLUS AN 2006:469657(Patent)},
	month = {2006/05/18/},
	pages = {56 pp.},
	publisher = {Yeda Research and Development Co. Ltd. At the Weizmann Institute of Science, Israel; University of Jerusalem Yissum Research Development Company of the Hebrew .},
	abstract = {The present invention provides an in vitro system for compartmentalization of large mol. libraries and provides methods for selection and isolation of mols. having desired activities from such libraries. The present invention provides novel and inventive applications of IVC for the selection of mols. being capable of modulating a particular activity of a known biol. active moiety, including, but not limited to an enzyme. The inventors of the present invention utilize a micelle delivery system that enables the transport of various solutes, including metal ions, into the emulsion droplets thereby inducing a desired activity of the known biol. active moiety or of the gene product. The present invention is based ion part on the unexpected finding that an IVC system can be used for directed evolution of nuclease inhibitors. In vitro compartmentalization (IVC) uses water-in-oil emulsions to create artificial cell-like compartments in which genes can be individually transcribed and translated. Here, the inventors present a new application of IVC for the selection of DNA-nuclease inhibitors. They developed a nano-droplets delivery system that allows the transport of various solutes, including metal ions, into the emulsion droplets. This transport mechanism was used to regulate the activity of colicin nucleases that were co-compartmentalized with the genes, so that the nucleases were activated by nickel or cobalt ions only after the potential inhibitor genes have been translated. They demonstrated its utility by selecting libraries of the gene encoding the cognate inhibitor of colicin E9 (immunity protein 9, or Im9) for inhibition of another colicin (ColE7). The in vitro evolved inhibitors show significant inhibition of ColE7 both in vitro and in vivo. These Im9 variants carry mutations into residues that det. the selectivity of the natural counterpart (Im7) while completely retaining the residues that are conserved throughout the family of immunity protein inhibitors. [on SciFinder(R)]},
	keywords = {evolution inhibitor cell free colicin E9 E7 DNA nuclease, water in oil emulsion evolution compartmentalization},
	author = {Tawfik, Dan and Bernath, Kalia and Magdassi, Shlomo and Peisajovich, Sergio Gerardo.}
}
@booklet {3846,
	title = {Ink jet printable compositions.},
	howpublished = {PCT Int. Appl.},
	number = {WO2006030286A1},
	year = {2006},
	note = {CAPLUS AN 2006:268545(Patent)},
	month = {2006/03/23/},
	pages = {47 pp.},
	publisher = {Cima Nano Tech Israel Ltd., Israel; Yissum Research Development Company of the Hebrew University of Jerusalem .},
	abstract = {Ink jet printable compns. that include nano metal powders in a liq. carrier are described for printing elec. conductor patterns. These compns. have high metal nanopowder concns. and low viscosities. [on SciFinder(R)]},
	keywords = {ink jet printing compn conductor},
	author = {Garbar, Arkady and Lekhtman, Dmitry and De la Vega, Fernando and Magdassi, Shlomo and Kamyshny, Alexander and Kahana, Frigita.}
}
@booklet {3848,
	title = {Production of nanoemulsions for improving light fastness of inks.},
	howpublished = {Israeli},
	number = {IL148528A},
	year = {2006},
	note = {CAPLUS AN 2009:220914(Patent)},
	month = {2006/12/31/},
	pages = {44pp.},
	publisher = {Yissum Research Development Company of the Hebrew University of Jerusalem, Israel .},
	abstract = {A nanoemulsion useful for improving light-fastness of water-based inks comprises nanodroplets of UV stabilizer in water, wherein the nanodroplets comprise (a) water-immiscible liq. phase, which is a UV stabilizer or a mixt. of UV stabilizers, (b) submicron solid particles of at least one UV stabilizer dispersed within said nanodroplets, and wherein the av. size of the droplets is < 350 nm. The nanoemulsion may further comprise one or more light fastness agents selected from UV absorbers, UV blockers, antioxidants, singlet oxygen quenchers, super oxide anion quenchers, ozone quenchers, visible light absorbers, or IR absorbers. [on SciFinder(R)]},
	keywords = {pigment nanoemulsion UV stabilizer water thinned printing ink paint},
	author = {Magdassi, Shlomo and Vinetsky, Yelena.}
}
@booklet {3849,
	title = {Biocompatible polymeric beads and use thereof.},
	howpublished = {U.S. Pat. Appl. Publ.},
	number = {US20050208134A1},
	year = {2005},
	note = {CAPLUS AN 2005:1026496(Patent)},
	month = {2005/09/22/},
	pages = {13 pp.},
	publisher = {Israel .},
	abstract = {The present invention relates to biocompatible polymeric beads and to biocompatible delivery systems comprising same for controlled or sustained release of bioactive mols. In particular, the invention relates to polymeric beads having a two-phase core and shell structure and to polymeric delivery systems comprising same that provide sustained release of the bioactive compd. A method of prepg. the biocompatible polymeric beads, comprises: (1) mixing an aq. soln. or suspension of the bioactive compd. in an oily phase to form a water-in-oil emulsion, in the presence of at least one surface active agent; (2) homogenizing the mixt.; (3) applying a polymeric shell around small droplets of the emulsion by means of core/shell extrusion; and (4) solidifying the shell to form two phase core-and-shell-structured polymeric beads. For example, both emulsion and suspension bead expts. were conducted with micronized halofuginone{\textperiodcentered}HBr (I). A water-in-oil emulsion was prepd., in which the internal phase contained I and the oil was sunflower oil. Beads were formed by a core-shell double nozzle using a shell soln. contg. Na alginate and a crosslinking agent contg. CaCl2. [on SciFinder(R)]},
	keywords = {biocompatible polymeric bead core shell structure controlled drug release, halofuginone emulsion alginate bead controlled delivery},
	author = {Magdassi, Shlomo and Kahana, Frigita.}
}
@booklet {3850,
	title = {Biocompatible polymeric delivery systems for sustained release of quinazolinones.},
	howpublished = {PCT Int. Appl.},
	number = {WO2005079703A1},
	year = {2005},
	note = {CAPLUS AN 2005:961994(Patent)},
	month = {2005/09/01/},
	pages = {59 pp.},
	publisher = {Collgard Biopharmaceuticals Ltd., Israel .},
	abstract = {The present invention relates to biocompatible polymeric delivery systems for controlled or sustained release of quinazolinone derivs.(I; n = 1-2; R1 = H, halo, NO2, benzo, alkyl, Ph, alkoxy; R2 = OH, acetoxy, alkoxy; R3 = H, alkenoxy carbonyl), including the compd. halofuginone. In particular the invention relates to a polymeric delivery system comprising biocompatible polymeric beads having a two-phase core and shell structure, or polymeric films, beads or complexes that provide local sustained release of the pharmacol. agent. For example, polymeric emulsion beads with core/shell structure were prepd. for controlled release of halofuginone. A water-in-oil emulsion was prepd., in which the 20\% wt. internal phase contained 50 mg halofuginone HBr/mL and the oil was sunflower oil. The emulsion was prepd. by adding the aq. halofuginone soln. in to the oil which contains 2.7\% wt. span 80, and homogenized. Beads were formed by a core-shell double nozzle Innotek. The shell soln. was 2.5\% sodium alginate and 2.5\% silica in aq. soln. [on SciFinder(R)]},
	keywords = {halofuginone polymer bead film sustained release, quinazolinone polymer bead film sustained release},
	author = {Magdassi, Shlomo and Cohn, Daniel.}
}
@booklet {3852,
	title = {Formulations for poorly soluble drugs comprising hydrophilic polymers.},
	howpublished = {PCT Int. Appl.},
	number = {WO2005072709A2},
	year = {2005},
	note = {CAPLUS AN 2005:732592(Patent)},
	month = {2005/08/11/},
	pages = {36 pp.},
	publisher = {Bio Dar Ltd., Israel; Yissum Research Development Company of the Hebrew University of Jerusalem .},
	abstract = {{The present invention provides a drug delivery system comprising nanoparticles or microparticles of a water poorly sol. drug dispersed in a polymeric bead contg. essentially only of hydrophilic polymers (i.e., without hydrophobic polymers). The present invention further provides a method of producing the drug delivery system of the invention. Thus, a 4\% sodium alginate soln. was prepd. by mixing 16 g of sodium alginate and 400 g water together with 0.4 g of Bronopol (preservative) at about 37{\textdegree} until complete dissoln. A crosslinking agent was prepd. by dissolving 14.8 g of calcium chloride dihydrate in 1000 g water. An oil-in-water emulsion (20\% oil phase, 80\% aq. phase) was prepd. contg. 3\% surfactant (mixt. of Tween 20 and Span 20},
	keywords = {polymer hydrophilicity poorly soluble drug particle},
	author = {Magdassi, Shlomo and Sela, Yoram and Cohen, Keren.}
}
@booklet {Reilly2000-uh,
	title = {Novel Cosmetic Delivery Systems},
	howpublished = {Journal of Controlled Release},
	volume = {68},
	number = {1},
	year = {2000},
	pages = {136},
	abstract = {{\textquoteleft}{\textquoteleft}Highlights the uses of delivery systems in cosmetics, analyzing new approaches for obtaining sophisticated cosmetic products and examining the most common methods for enhancing the skin{\textquoteright}s penetration properties. Covers a wide range of established and burgeoning techniques.{\textquoteright}{\textquoteright}},
	author = {Reilly, William J}
}
