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The article focuses on the fluidized catalytic cracking (FCC) technology to convert light cycle oil (LCO) into gasoline with a high research octane number (RON). According to the authors, the technology has been developed to meet the requirements for gasoline consumption and diesel quality. It also discusses the commercial applications of the FCC technology in both Modes 1 and 2.

The article offers information on use of fluid catalytic cracking (FCC) technology for reducing dry gas and coke. It mentions that FCC technology's principal is based on the formation and conversion of olefins in two different reaction zones. It states that in order to make full use of oil resources and to increase high-value added products, refiners have been seeking to increase liquid product yield while decreasing dry gas and coke yields in the FCC process.

How the actual experience of two PACE organizations is contributing to the development of new programs. [ABSTRACT FROM AUTHOR]

In having a broad resident population, this facility encounters real challenges -- a work-in-progress report. [ABSTRACT FROM AUTHOR]

This article focuses on the operational aspects of delivering hospice care in a long-term care facility, including the specifics of Medicare's hospice benefit, contracting between the hospice care provider and the facility, and ways to develop and deliver coordinated care. It proceeds on the assumption that facilities recognize the benefits of such a collaboration, as described in 'Why Hospice Care Belongs in Nursing Homes, Part 1,' April 2001 Nursing Homes/Long Term Care Management, p. 46. [ABSTRACT FROM AUTHOR]

The article informs that fluid catalytic cracking (FCC) has become the second major propylene production technology after steam cracking, showing high flexibility in feedstocks and product distribution. Deep catalytic cracking is an FCC process that uses proprietary catalysts to selectively crack various heavy feedstocks to light olefins.

The article offers information on several technologies that were based from fluid catalytic cracking (FCC) process which could be used to produce petrochemicals and clean fuels. Topics include the proprietary catalytic cracking technology (FCC-l) which converts heavy hydrocarbon feedstocks into refined fuels and light olefins, catalytic pyrolysis process which could generate ethylene through carbocation reaction and thermal radical cracking, and high-octane-number light and gasoline aromatics.