S. C. Johnson Commercial Markets, Inc.

S. C. Johnson Son, Inc.

S. C. Johnson Commerical Markets, Inc.

Johnsondiversey, Inc.

University of Southern Mississippi

Charles E Seaman

John A Boticki

Carey W Zimmerman

Thomas A Helf

James H Lohr

Raymond McKinnon

Brent Duchon

Michael J Greaney

A Ross Cameron

Mark M Gipp

Robert Yeats Lochhead

James L Bournoville

E Theodore Lance-Gomez

George B Keyes

Michael R Barry

Jeffrey Chen

Gary L Waymire

Jon K Kassen

Jon K Kasson

Richard E Rakoczy

A liquid dishwashing detergent composition having improved glassware protection when employed in conjunction with cleaning materials having high concentrations of alkaline materials. The composition contains a soluble organic zinc compound which preferably is zinc gluconate and is particularly suited to fast cycle commercial (I&I) dishwashers. The zinc gluconate is prepared in situ or zinc and gluconic ions are provided in a batching process.

Liquid automatic dishwashing composition with glassware protection

A combination spray apparatus which allows for the selection of several different flowable materials to be sprayed from a single unit and at the site of the unit itself. In the preferred manner, the spray apparatus includes a trigger nozzle as well as the selection of two different materials to be sprayed through a second barrel portion. An eductor it utilized to draw selected materials into a spray stream. The combination spray apparatus is operable with water pressures which are customary to most cities and industries.

Combination spray apparatus

Disclosed is an improved mixing eductor (,) of the type wherein the primary liquid (,), e.g., water, is in a main stream (,) flowing in a downstream direction. A venturi tube (,) is in the eductor (,) and has an annular sharp edge (,) in the main stream (,), thereby dividing such stream (,) into a primary stream (,) and a secondary stream (,) around the primary stream (,). The eductor (,) has an air gap (,) and a flow guide (,) downstream thereof. In a specific embodiment, the flow guide (,) is annular around the venturi tube (,) and the tube (,) and the guide (,) are in spaced telescoped relationship. Several embodiments of the eductor (,) and a new method for mixing liquids are disclosed.

Mixing eductor

A docking station and bottle system 23 including a filling head 20 and bottle 22 which have a head interconnect 86 and a bottle interconnect 90, respectively, for fastening the bottle 22 to the filling 20 head in order to prevent spillage. The bottle interconnect 90 includes a fluid port 106 and a vent port 104 which are simultaneously opened from a closed position in order to allow the filling head 20 to draw concentrated fluid from the bottle 22 and mix the concentrated fluid with a diluting fluid such as water before being dispensed from a filling head nozzle 52. The bottle 22 includes identifying indicia 158 for purposes of tracking utilization of the bottle and the concentrated fluid contained therein. An information storage system 170 is associated with the bottle and filling head in order to provide records of such concentrated fluid utilization. A wall mounted docking station 200 including one or more filling heads 20 is also provided for. A refill head is further provided for refilling bottle 22.

Docking station and bottle system

Disclosed is a non-educting device (10) for preventing back flow of contaminated water into a potable water system. The device (10) includes first and second nozzles (33, 35) in series flow relationship to one another, an air gap (49) between the first and second nozzles (33, 35) and a water inlet (27). In the improvement, the inlet (27) is the sole liquid inlet of the device (10) and the first nozzle (33) is between the air gap (49) and the inlet (27). Such nozzle (33) includes a tapered portion having an axial length (AL) and a circular discharge opening (59). The ratio of the axial length (AL) to the diameter of the opening (59) is in the range of 0.7 to 1.1. Other features involve a unique containment bowl (21) and a secondary air gap (19) in liquid flow relationship to the containment bowl (21).

Non-educting back flow prevention device

A liquid dishwashing detergent composition having improved glassware protection when employed in conjunction with cleaning materials having high concentrations of alkaline materials. The composition contains a soluble organic zinc compound which preferably is zinc gluconate and is particularly suited to fast cycle commercial (I&I) dishwashers.

The present invention relates to single-phase soap gels and viscous soap compositions which are produced by alkanolamine neutralization of a fatty acid above the Krafft point. These compositions are robust, biodegradable, and are insensitive to temperature changes. The compositions also exhibit excellent cleaning properties and may be used as laundry cleaning agents, oven cleaners, hard surface cleaners, and disinfectants and air fragrancing compositions.

Single-phase soap compositions

Disclosed is an improved mixing eductor (10) of the type wherein the primary liquid (17), e.g., water, is in a main stream (201) flowing in a downstream direction. A venturi tube (51) is in the eductor (10) and has an annular sharp edge (131) in the main stream (201), thereby dividing such stream (201) into a primary stream (179) and a secondary stream (181) around the primary stream (179). The eductor (10) has an air gap (103) and a flow guide (47) downstream thereof. In a specific embodiment, the flow guide (47) is annular around the venturi tube (51) and the tube (51) and the guide (47) are in spaced telescoped relationship. Several embodiments of the eductor (10) and a new method for mixing liquids are disclosed.

A distributed concentrated chemical dispensing system 300 and method include a central station 302, one or more permanently mounted satellite stations 304, and one or more portable satellite stations 306. Local concentrated chemicals can be distributed from the central station 302 without being diluted to the satellite stations 304, 306 for final dilution. An information storage device 318 is provided for tracking and keeping records of the utilization of the concentrated chemicals.

Distributed concentrated chemical dispensing system

Disclosed is an improved device (10) for preventing back flow of possibly-contaminated water into a potable water system. The device (10) includes first, second and third nozzles (33, 35, 37) in series flow relationship, and an air gap (49) between the first and second nozzles (33, 35). In the improvement, the air gap (49) is a primary air gap and the device (10) includes a secondary air gap (19) fixed with respect to the second nozzle (35). In a more specific aspect of the new device (10), the second and third nozzles (35, 37) are in a tubular housing (41) and the device (10) includes a containment bowl (21) around the housing (41). The secondary air gap (19) includes an aperture (53) in the housing wall (55) and such aperture (53) opens to the containment bowl (21). Other aspects of the new device (10 involve particular nozzle configurations and relationships and a restrictor (103) inhibiting back flow.

Growing community of inventors

Kenosha, WI, United States of America

Charles E Seaman