Abstract: The present invention relates to the discovery that CCL3, through at least one of its receptors CCR1 and CCR5, plays a role in the pathologies associated with myeloid neoplasms. In various embodiments, the pathologies associated with myeloid neoplasms treatable by the compositions and methods of the invention described herein include, but are not limited to, at least one of osteoclast/osteoblast imbalance, inhibition of osteoblast function, bone loss, disregulation of the hematopoietic stem cell microenvironment, abnormal hematopoietic recovery, pancytopenia, anemia, thrombocytopenia, neutropenia, bicytopenia, and erythrocytopenia. Interfering with the interaction between CCL3 and its receptors, by targeting at least one of CCL3, CCR1, CCR5, diminishes the effects of pathologies associated with myeloid neoplasms.

Abstract: A self-contained laser module assembly has a diode laser and driver circuit enclosed with a cylindrical metal housing which forms a first electrical contact for inputting a DC voltage to power the circuit and laser. The housing has a first end which includes a lens positioned to emit a collimated laser beam along an axis of the housing and a second end including a second external electrical contact positioned to contact the power supply. One application of the module is in a pen-like pointer. The pointer includes conductive cap and body portions which are threaded together to house a laser module and a battery in end-to-end relationship. An O-ring between the battery and the body or module is axially compressed by tightening the cap on the body to enable turning on the pointer. The cap has a pocket clip through which electrical contact is selectably made between the body and a side contact on the module to cause a beam to be emitted.

Abstract: Synthesis gas is produced by the partial oxidation of a feedstock comprising sulfur and ash-containing heavy liquid hydrocarbonaceous fuels, solid carbonaceous fuels, or mixtures thereof. An iron-containing additive is introduced into the reaction zone along with the feed to produce first and second liquid phase washing agents that collect and transport the vanadium-containing oxide laths and spinels and other ash components out of the reaction zone. A gaseous slag fludizing agent is also introduced into the top of the reaction zone so tha the gasifier is operated at a uniform temperature throughout under conditions that maximize the fluidity of the molten slag over the full opereating temperature range in the gasifier. Equilibrium oxygen and sulfur concentrations are provided in the gas phase in the reaction zone which provide specific partial pressures.

Abstract: Reactor for gasifying a carbonaceous fuel to produce a usable gas, and comprising an insulated outer shell. A reaction chamber within the shell receives a fuel mixture from an injection burner. The products or effluent of gasification include hot produced gases which are passed through a constricted throat to be cooled in a liquid bath. A dip tube, which guides the hot effluent into the bath, is provided with a stream of coolant from a quench ring. The latter is supported below the reaction chamber and is provided with a thermal barrier along its surface that is exposed to the hot produced gas. The barrier will reduce thermal stress in the quench ring and reduce drain of heat from the gasifier throat, thus avoiding premature chilling of the slag component.

Abstract: Synthesis gas is produced by the partial oxidation of a feedstock comprising petroleum coke and/or heavy liquid hydrocarbon fuel containing sulfur and having an ash that contains nickel, vanadium and silicon. An iron-containing or an iron and calcium-containing additive is introduced into the reaction zone along with the feed. The additive combines with at least a portion of the iron and nickel constituents and sulfur found in the feedstock to produce a liquid phase washing agent that collects and transports at least a portion of the vanadium-containing oxide laths and spinels and other ash components out the reaction zone. Slag and other particulate matter is separated from the effluent gas stream and ground to produce a heterogeneous mixture of magnetic and non-magnetic solid particles.

Abstract: An assembly of a quench liquid distribution ring and dip-tube with or without a draft tube for use in a hot effluent gas quench cooling zone containing a pool of quench liquid in the bottom in combination with a vertical cylindrical free-flow refractory lined reaction zone of a partial oxidation gas generator. The hot effluent gas from the reaction zone passes through a bottom central discharge outlet and passage and then through a coaxial vertical dip-tube that extends down into a pool of quench liquid. A quench liquid distribution ring that includes an annular rectangular shaped bottom feed quench liquid distribution channel, surrounds the outside diameter of the dip-tube at its upstream end. A quench ring face and cover is provided that comprises a vertical cylindrical shaped leg portion and a top horizontal flat ring plate portion that extends perpendicularly outward from the upstream end of the leg portion.

Abstract: This invention pertains to the use of an ash-removal additive in the production of hot raw gaseous mixtures comprising H.sub.2 +CO and containing entrained molten slag by the partial oxidation of a feedstock comprising a heavy liquid hydrocarbonaceous fuel having a nickel and vanadium-containing ash or petroleum coke having a nickel and vanadium-containing ash. Sticking and build-up of molten slag on the surfaces of a steel quench ring and heat exchanger which may be contacted by the molten slag entrained in the hot raw effluent gas stream is prevented by the high temperature electrodeposition of a protective metal e.g. aluminum or titanium. The protective metal is electrodeposited from an electrolytic bath comprising molten fluorides and diffuses beneath the surface and forms an alloy or solid solution with the subsurface metal.

Abstract: Process for the production of gaseous mixtures comprising H.sub.2 +CO e.g. synthesis gas, reducing gas, or fuel gas by the partial oxidation of a vanadium-containing liquid hydrocarbonaceous fuel, solid carbonaceous fuel, or mixtures thereof in a free-flow vertical refractory lined gas generator. The feed mixture to the gas generator comprises (i) a vanadium-containing fuel; (ii) supplemental copper-containing additive; and (iii) at least a portion of the remainder of the copper-containing slag after separation of an enriched vanadium-containing coarse slag fraction. Materials (ii) and (iii) combine in the partial oxidation reaction zone with at least a portion of the nickel and iron constituents and the sulfur found in the feedstock to produce a liquid phase washing agent that collect and transports at least a portion of the vanadium-containing oxide laths and spinels and other ash components out of the reaction zone as molten vanadium-containing slag.

Abstract: An ash fusion temperature reducing agent principally comprising at least 50.0 wt. % of a manganese compound, such as MnO, and the remainder of the agent comprising a silicon compound, such as SiO.sub.2 is mixed with an ash-containing fuel comprising a pumpable liquid hydrocarbonaceous material and/or petroleum coke to produce Mixture A. In one embodiment, the ash fusion temperature reducing agent comprises a comminuted pyrolusite ore in which the following elements are present in weight percent basis ore: manganese in the range of about 50-75, calcium in the range of about 0-1.0, silicon in the range of about 0-3.0, magnesium in the range of about 0-1.0, and aluminum in the range of about 0-1.0. Mixture A is reacted with a free-oxygen containing gas in a free-flow refractory lined reaction zone of a partial oxidation gas generator. A hot raw effluent gas stream comprising H.sub.2 +CO along with molten ash having a reduced initial deformation temperature are produced at a lower temperature.

Abstract: Process for the production of gaseous mixtures comprising H.sub.2 +CO e.g. synthesis gas, reducing gas, or fuel gas by the partial oxidation of a vanadium-containing liquid hydrocarbonaceous fuel, solid carbonaceous fuel, or mixtures thereof in a free-flow vertical refractory lined gas generator. The feed mixture to the gas generator comprises (i) a vanadium-containing fuel; (ii) supplemental iron-containing ash fusion temperature reducing agent; and (iii) at least a portion of the remainder of the iron-containing slag after separation of an enriched vanadium-containing coarse slag fraction. The coarse slag fraction has a decreased Fe/V weight ratio and is formed by depositing a portion of the slag entrained in the hot raw effluent gas stream from the partial oxidation reaction zone on the walls of a slag separation chamber located between the bottom discharge outlet in the reaction zone and the effluent gas quench tank located at the bottom of the gas generator.

Abstract: An ash fusion temperature reducing agent comprising a mixture of about 70-97 wt. % of an iron compound and the remainder comprising a silicon compound is mixed with an ash-containing fuel comprising liquid hydrocarbonaceous material and/or petroleum coke. The comminuted mixture is reacted in a free-flow partial oxidation reaction zone with a free-oxygen containing gas in the presence of a temperature moderator to produce a hot raw effluent gas stream comprising H.sub.2 +CO along with molten ash having a reduced initial deformation temperature. The weight ratio of ash fusion temperature reducing agent to ash in said ash-containing fuel is in the range of about 0.5 to 10, and the weight ratio of iron oxide to SiO.sub.2 in said molten ash is about 1.5, or more. The molten ash is then separated from the hot raw effluent gas stream.