Abstract: Aggregate processing systems, methods, and apparatus are described. In some embodiments, a plant is configurable in one of a plurality of configurations.

Abstract: The present invention relates to antibodies that specifically bind to one or more of IL-4, IL-13, IL-33, TSLP, and p40. The present invention further relates to antibodies that bind to one of IL-4, IL-13, IL-33, or TSLP. The invention further relates to multispecific antibodies that specifically bind to IL-4 and IL-13, and at least one other target. The present invention relates to multispecific antibodies that bind IL-4, IL-13, and one of IL-33, TSLP, or p40. The present invention also pertains to related molecules, e.g. nucleic acids which encode such antibodies or multispecific antibodies, compositions, and related methods, e.g., methods for producing and purifying such antibodies and multispecific antibodies, and their use in diagnostics and therapeutics.

Abstract: A drive system includes a first transmission, a second transmission and at least one flexible driving member. The first transmission is operably coupled to a first set of wheels to provide drive power to the first set of wheels responsive to engagement of the first transmission. The second transmission is operably coupled to a second set of wheels to provide drive power to the second set of wheels responsive to engagement of the second transmission. The at least one flexible driving member is operably coupled to a remote actuator and a drive shaft of the walk-behind outdoor power equipment device. The at least one flexible member selectively engages one of the first transmission or the second transmission to switch a walk-behind outdoor power equipment device between all wheel drive operation and another drive mode via the remote actuator.

Abstract: A drive system includes a first transmission, a second transmission and at least one flexible driving member. The first transmission is operably coupled to a first set of wheels to provide drive power to the first set of wheels responsive to engagement of the first transmission. The second transmission is operably coupled to a second set of wheels to provide drive power to the second set of wheels responsive to engagement of the second transmission. The at least one flexible driving member is operably coupled to a remote actuator and a drive shaft of the walk-behind outdoor power equipment device. The at least one flexible member selectively engages one of the first transmission or the second transmission to switch a walk-behind outdoor power equipment device between all wheel drive operation and another drive mode via the remote actuator.

Abstract: A drive system includes a first transmission, a second transmission and at least one flexible driving member. The first transmission is operably coupled to a first set of wheels to provide drive power to the first set of wheels responsive to engagement of the first transmission. The second transmission is operably coupled to a second set of wheels to provide drive power to the second set of wheels responsive to engagement of the second transmission. The at least one flexible driving member is operably coupled to a remote actuator and a drive shaft of the walk-behind outdoor power equipment device. The at least one flexible member selectively engages one of the first transmission or the second transmission to switch a walk-behind outdoor power equipment device between all wheel drive operation and another drive mode via the remote actuator.

Abstract: A drive system includes a first transmission, a second transmission and at least one flexible driving member. The first transmission is operably coupled to a first set of wheels to provide drive power to the first set of wheels responsive to engagement of the first transmission. The second transmission is operably coupled to a second set of wheels to provide drive power to the second set of wheels responsive to engagement of the second transmission. The at least one flexible driving member is operably coupled to a remote actuator and a drive shaft of the walk-behind outdoor power equipment device. The at least one flexible member selectively engages one of the first transmission or the second transmission to switch a walk-behind outdoor power equipment device between all wheel drive operation and another drive mode via the remote actuator.

Abstract: A sun-tracking solar drive of a solar energy system can include mounting hardware supporting the solar drive with support components of the same type of that used for supporting other components of system. The support components can be in the form of pile driven members, which optionally can be connected together for sharing the loads associated with the solar drive. The solar drive can be mounted to the support components with an adjustable mount member, configured to allow an orientation of the solar drive to be adjusted.

Abstract: A drive system includes a first transmission, a second transmission and at least one flexible driving member. The first transmission is operably coupled to a first set of wheels to provide drive power to the first set of wheels responsive to engagement of the first transmission. The second transmission is operably coupled to a second set of wheels to provide drive power to the second set of wheels responsive to engagement of the second transmission. The at least one flexible driving member is operably coupled to a remote actuator and a drive shaft of the walk-behind outdoor power equipment device. The at least one flexible member selectively engages one of the first transmission or the second transmission to switch a walk-behind outdoor power equipment device between all wheel drive operation and another drive mode via the remote actuator.

Abstract: A drive system includes a first transmission, a second transmission and at least one flexible driving member. The first transmission is operably coupled to a first set of wheels to provide drive power to the first set of wheels responsive to engagement of the first transmission. The second transmission is operably coupled to a second set of wheels to provide drive power to the second set of wheels responsive to engagement of the second transmission. The at least one flexible driving member is operably coupled to a remote actuator and a drive shaft of the walk-behind outdoor power equipment device. The at least one flexible member selectively engages one of the first transmission or the second transmission to switch a walk-behind outdoor power equipment device between all wheel drive operation and another drive mode via the remote actuator.

Abstract: A trigger 52a control apparatus is provided for operating a transmission 44 of a self-propelled mowing machine 20 via a cable 42 between a halt condition and an advancement condition. The trigger 52a control apparatus includes a housing 100, and a plurality of independently operable triggers 52a rotatably coupled to the housing 100 for movement between an engaged and a disengaged position 104. Each trigger 52a includes an operation member 108a. A cam 114 is rotatably coupled to the housing 100 about a cam rotation axis 116 and operatively coupled to the cable 42, wherein rotation of the cam 114 in a first direction relatively increases tension in the cable 42. An actuation member 138 is coupled to the cam 114 a distance from the cam rotation axis 116.

Abstract: A mower 10 is provided for cutting grass where the mower 10 includes a body 12 with a mower deck 16, a motor 14, a baffle 30, and a battery 52. The mower deck 16 has a downwardly-open interior within which grass is cut. The motor 14 is supported upon the mower deck 16 and supplies a motive force for a mowing operation where the motor 14 includes at least a portion operable by electrical energy. The baffle 30 is located within the interior of the mower deck 16 where the baffle 30 bounds an area within the mower deck 16. The battery 52 is located within the interior of the mower deck 16 and is located within the area bounded by the baffle 30. In another example, the mower deck 16 and the baffle 30 are configured for substantially restraining the movement of the battery 52. In an example method, the battery 52 is installed within a baffle 30 that is secured within an interior of the mower deck 16.

Abstract: A trigger 52a control apparatus is provided for operating a transmission 44 of a self-propelled mowing machine 20 via a cable 42 between a halt condition and an advancement condition. The trigger 52a control apparatus includes a housing 100, and a plurality of independently operable triggers 52a rotatably coupled to the housing 100 for movement between an engaged and a disengaged position 104. Each trigger 52a includes an operation member 108a. A cam 114 is rotatably coupled to the housing 100 about a cam rotation axis 116 and operatively coupled to the cable 42, wherein rotation of the cam 114 in a first direction relatively increases tension in the cable 42. An actuation member 138 is coupled to the cam 114 a distance from the cam rotation axis 116.

Abstract: A mower 10 has a rearwardly directed discharge 24 and a handle 32 for gripping by an operator 12 walking behind the mower 10. A motor 18 powers a grass cutting operation to provide a flow of cut grass 26. A collection bag 36 has an inlet to mate with a discharge 24 of a cutting platform 16 for receiving flow of cut grass 26 there through. The bag 36 has a support 30 and a fabric enclosure 40. The fabric allows air to permeate there through while retaining cut grass 26. An opening 56 through the fabric is located on an upper side of the collection bag 36 and adjacent to the inlet of the collection bag 36. A transparent window 54 is attached to fabric and extends across the opening 56 through the fabric to permit the operator 12 to view the flow of cut grass 26 moving from the cutting platform 16 through the discharge 24 and into the bag 36 through the inlet of the collection bag 36 from an operator 12 position.

Abstract: A mower 10 is provided for cutting grass where the mower 10 includes a body 12 with a mower deck 16, a motor 14, a baffle 30, and a battery 52. The mower deck 16 has a downwardly-open interior within which grass is cut. The motor 14 is supported upon the mower deck 16 and supplies a motive force for a mowing operation where the motor 14 includes at least a portion operable by electrical energy. The baffle 30 is located within the interior of the mower deck 16 where the baffle 30 bounds an area within the mower deck 16. The battery 52 is located within the interior of the mower deck 16 and is located within the area bounded by the baffle 30. In another example, the mower deck 16 and the baffle 30 are configured for substantially restraining the movement of the battery 52. In an example method, the battery 52 is installed within a baffle 30 that is secured within an interior of the mower deck 16.

Abstract: A system and method for scheduling advertisements. The system has an inventory of advertisements wherein each advertisement comprises a demographic and a client identifier. An interface is provided for receiving an order wherein the order has a target demographic, a target client identifier, impressions to be played (I), value (V), time remaining (T) and a product code (PC). An order priority is determined wherein for each advertisement of the advertisements the demographic matches the target demographic and the client identifier matches the target client identifier and the advertisements are sorted by priority (P) into a priority list. The priority for each advertisement is a function of the impressions to be played, the value, and the time remaining. An order queue is provided wherein the priority list is resorted by an attractiveness into a play list.

Abstract: A cache coherency arrangement with support for pre-fetch ownership, to enhance inbound bandwidth for single leaf and multiple leaf, input-output interfaces, with shared memory space is disclosed. Embodiments comprise ownership stealing to enhance inbound bandwidth and to prevent or attenuate starvation of transactions or of an input-output interface for transactions.

Abstract: A cache coherency arrangement with support for pre-fetch ownership, to enhance inbound bandwidth for single leaf and multiple leaf, input-output interfaces, with shared memory space is disclosed. Embodiments comprise ownership stealing to enhance inbound bandwidth and to prevent or attenuate starvation of transactions or of an input-output interface for transactions.