Abstract: Systems and methods for improving tire uniformity using estimates of process harmonic magnitude(s) from static balance measurements for a set of tires are provided. In particular, a sequence of observed magnitudes of static balance can be obtained for a set of tires. The sequence of observed magnitudes can be analyzed in conjunction with a baseline magnitude pattern associated with the process harmonic to derive a magnitude of the process harmonic. The magnitude of the process harmonic can be used to improve the uniformity of tires.

Abstract: Embodiments relate generally to milling machines and milling techniques, and more particularly, to devices, integrated circuits, computer readable media, apparatuses, milling machines and methods to automatically load and/or unload work pieces in relation to the adverse milling machine environments. In one embodiment, an apparatus includes a loader member configured to impart a loading force unto a work piece to position the work piece in a milling region. The apparatus can also include an effector configured to transfer the loading force from the loader member to the work piece and is configured further to apply a cleaning force to a path that the work piece traverses to the milling region. In some cases, the apparatus can include an ejector configured to remove a milled work piece from the milling region.

Abstract: Embodiments relate generally to milling machines and milling techniques, and more particularly, to devices, integrated circuits, computer readable media, apparatuses, milling machines and methods to control automatic loading and/or unloading of work pieces in relation to the adverse milling machine environments. In one embodiment, a method of operating a loader includes applying a cleaning force to portions of contacting surfaces of guide members at different times. The cleaning force originates within pairs of the guide members. The method can also activating a loader member to displace a work piece in a plane that includes the contacting surfaces of the guide members.

Abstract: The present invention provides a hub cover for a wheel hub on a vehicle used for agriculture and a stud extension piece used to operatively affix the hub cover to the wheel hub. In a preferred embodiment, the hub cover comprises a polyethylene convex dome that is affixed to the wheel hub of the vehicle using a stud extension piece that couples the hub cover to an exposed wheel hub. The use of the hub cover minimizes crop damage caused by the exposed hubs of the vehicle in crop fields.

Abstract: Embodiments relate generally to milling machines and milling techniques, and more particularly, to apparatuses, milling machines and methods to control automatic loading and/or unloading of work pieces in relation to the adverse milling machine environments. In one embodiment, an apparatus includes a subset of guide members constituting a staging region, a loader member configured to impart a loading force unto the work piece to transition the work piece from the staging region, and an effector coupled to the loader member. The effector is configured to apply a cleaning force to a path in a first interval of time and is configured further to transfer the loading force from the loader member to the work piece in a second interval of time, and an alignment device configured to align the subset of guide members and the effector to form a portion of the path in a first mode.

Abstract: A fluidic device includes a porous substrate, a wetting region extending through a first portion of the porous substrate from a first side of the substrate, in which the wetting region is permeable to fluid transport, and a non-wetting region extending through a second portion of the porous substrate from a second side of the substrate, in which the non-wetting region is operable to switch between a first state impermeable to fluid transport and a second state permeable to fluid transport.

Abstract: Embodiments relate generally to milling machines and milling techniques, and more particularly, to devices, integrated circuits, computer readable media, apparatuses, milling machines and methods to automatically load and/or unload work pieces in relation to the adverse milling machine environments. In one embodiment, an apparatus includes a loader member configured to impart a loading force unto a work piece to position the work piece in a milling region. The apparatus can also include an effector configured to transfer the loading force from the loader member to the work piece and is configured further to apply a cleaning force to a path that the work piece traverses to the milling region. In some cases, the apparatus can include an ejector configured to remove a milled work piece from the milling region.

Abstract: Embodiments relate generally to milling machines and milling techniques, and more particularly, to apparatuses, milling machines and methods to control automatic loading and/or unloading of work pieces in relation to the adverse milling machine environments. In one embodiment, an apparatus includes a subset of guide members constituting a staging region, a loader member configured to impart a loading force unto the work piece to transition the work piece from the staging region, and an effector coupled to the loader member. The effector is configured to apply a cleaning force to a path in a first interval of time and is configured further to transfer the loading force from the loader member to the work piece in a second interval of time, and an alignment device configured to align the subset of guide members and the effector to form a portion of the path in a first mode.

Abstract: A portable battery booster for providing a compact, light, and energy efficient battery to jump start a vehicle. The portable battery booster generally includes a housing, a battery means adapted to be received by the housing, a pair of cable means, each of the cable means having a proximal end and a distal end, the proximal end electrically connected to the battery means and the distal end detachably connected to a discharged battery of the vehicle. The battery is generally comprised of one or more batteries having the type of primary lithium-metal, rechargeable lithium-ion, and/or lithium-polymer and more specifically preferably comprised of lithium iron phosphate for fast charging, small size, and high performance. The battery may also be connected to one or more supercapacitors, an internal CPU, DC/DC converter, etc. to increase performance. The cable means includes jaws that detachably connect to the housing in a flush and sleek manner.

Abstract: A reserve battery having a prolonged shelf life that may be used in a wide variety of consumer related and non consumer related electrical devices. The reserve battery includes an outer enclosure, an internal breaking element extending directly from an inner surface of the outer enclosure and a breakable barrier positioned within the outer enclosure. At least one reservoir and at least one chamber are defined by the breakable barrier and the outer enclosure. An electrolyte material is contained within the reservoir and a plurality of electrodes are contained within the chamber. The plurality of electrodes receive the electrolyte material to activate the battery when manual pressure is applied to the internal breaking element to move the internal breaking element inwardly thus breaking the breakable barrier to allow passage of the electrolyte from within the reservoir to saturate the separator within the chamber.

Abstract: A fluidic device includes a porous substrate, a non-wetting region extending through a first portion of the porous substrate from a first side of the substrate, in which the non-wetting region is impermeable to fluid transport, and a wetting region extending through a second portion of the porous substrate from a second side of the substrate, in which the wetting region is permeable to fluid transport.

Abstract: A fluidic device includes a porous substrate, a wetting region extending through a first portion of the porous substrate from a first side of the substrate, in which the wetting region is permeable to fluid transport, and a non-wetting region extending through a second portion of the porous substrate from a second side of the substrate, in which the non-wetting region is operable to switch between a first state impermeable to fluid transport and a second state permeable to fluid transport.

Abstract: A method of activating a micro-cell in which the micro-cell includes a first compartment, a second compartment, a fluid in the first compartment, an element in the second compartment and a porous barrier separating the first compartment from the second compartment. The porous barrier, in a first state, is operable to prevent the fluid from entering the second compartment whereas the porous barrier, in a second state, is operable, in response to an event, to allow the fluid to enter the second compartment and interact with the element in the second compartment so as to generate an activation signal.

Abstract: An electrochemical cell includes a first cell, a second cell and a barrier isolating a fluid in the first cell from the second cell in which the barrier, in response to an activation signal, changes to a second state to allow the fluid to pass into the second cell and activate the electrochemical cell.

Abstract: A ski rope holder which allows a user to wind up a ski rope without tangling it and to store it in a small space. The ski rope holder has a spool mounted inside of a housing. The spool, which is operated by a crank located on the outside of the housing, mounts a lead rope. The lead rope has a hook for attaching to a ski rope. The housing also mounts a handle, for easy operation of the ski rope holder, and a clip, for the attachment of a ski rope handle during storage. In use, a ski rope that is attached to the lead rope of the ski holder can be wound up and payed out as necessary. When the rope is fully out, the ski rope can be disconnected from the ski rope holder and attached to a hook on the rear of the boat. This attachment to the rear of the boat insures that the ski rope will not become entangled with the motor of the boat.