Abstract:
A microbicidal filter system having superior drop pressure and low complexity is provided, as well as a method for producing the same. The system comprises a plurality of glass beads (60) having pores formed therebetween for the flow of air therethrough. The sintered glass beads (60) are coated in a transition metal oxide and water. An ultraviolet light source (62) is used to cause a photocatalytic reaction between the transition metal oxide and water. Free hydroxyl radicals with microbicidal properties are formed. Urethane foam (28a, 28b) may be inserted between the glass beads (12) before sintering in order to cause a bimodal pore size distribution, and particulates (30a, 30b, 30c) disposed on the glass beads (912) bay be added to alter surface activity.
Abstract:
A microbicidal filter system having superior drop pressure and low complexity is provided, as well as a method for producing the same. The system comprises a plurality of glass beads (60) having pores formed therebetween for the flow of air therethrough. The sintered glass beads (60) are coated in a transition metal oxide and water. An ultraviolet light source (62) is used to cause a photocatalytic reaction between the transition metal oxide and water. Free hydroxyl radicals with microbicidal properties are formed. Urethane foam (28a, 28b) may be inserted between the glass beads (12) before sintering in order to cause a bimodal pore size distribution, and particulates (30a, 30b, 30c) disposed on the glass beads (912) bay be added to alter surface activity.
Abstract:
A microbicidal filter system having superior drop pressure and low complexity is provided, as well as a method for producing the same. The system comprises a plurality of glass beads having pores formed therebetween for the flow of air therethrough. The sintered glass beads are coated in a transition metal oxide and water. An ultraviolet light source is used to cause a photocatalytic reaction between the transition metal oxide and water. Free hydroxyl radicals with microbicidal properties are produced. Urethane foam may be inserted between the glass beads before sintering in order to cause a bimodal pore size distribution, and particulates disposed on the glass beads may be added to alter surface activity.
Abstract:
A microbicidal filter system having superior drop pressure and low complexit y is provided, as well as a method for producing the same. The system comprise s a plurality of glass beads (60) having pores formed therebetween for the flo w of air therethrough. The sintered glass beads (60) are coated in a transitio n metal oxide and water. An ultraviolet light source (62) is used to cause a photocatalytic reaction between the transition metal oxide and water. Free hydroxyl radicals with microbicidal properties are formed. Urethane foam (28 a, 28b) may be inserted between the glass beads (12) before sintering in order to cause a bimodal pore size distribution, and particulates (30a, 30b, 30c) disposed on the glass beads (912) bay be added to alter surface activity.
Abstract:
A microbicidal filter system having superior drop pressure and low complexity is provided, as well as a method for producing the same. The system comprises a plurality of glass beads (60) having pores formed therebetween for the flow of air therethrough. The sintered glass beads (60) are coated in a transition metal oxide and water. An ultraviolet light source (62) is used to cause a photocatalytic reaction between the transition metal oxide and water. Free hydroxyl radicals with microbicidal properties are formed. Urethane foam (28a, 28b) may be inserted between the glass beads (12) before sintering in order to cause a bimodal pore size distribution, and particulates (30a, 30b, 30c) disposed on the glass beads (912) bay be added to alter surface activity.