Your TPL Legal Team is experienced in a wide range of mechanical technologies, including but not limited to:
- Packaging for electronics
- Plastics Additive
- Shaft-coupled drive trains
- Fastening Systems/li>
- Thermal circuits
- Electromechanical Actuators
- Fluid delivery
- Design for Manufacturing
- Hand-operated tools
- Vehicle-based devices
- Gears / Cams
A safety switch is disclosed herein. The safety switch may comprise: a housing, wherein the housing comprises a mating cam; a face plate, wherein the face plate is coupled to the housing; and a subassembly coupled to the face plate, wherein the subassembly comprises: a base, wherein the base comprises a slot; a cam, wherein the cam is positioned within the base; a pushbutton, wherein the pushbutton comprises a hole; and a pin positioned through the hole of the pushbutton and the slot of the base; wherein the cam, the base, and the pushbutton are mated together with the pin; wherein the subassembly is not rotatable due to the pin.
A toggle switch comprises a housing, a plurality of switches disposed within the housing, an actuating lever coupled to a pivot pin, and an actuator assembly coupled to the actuating lever. The actuating lever extends into the housing. The actuator assembly comprises an actuation pin coupled to the actuating lever, and a spring disposed about the actuating lever. The actuation pin is configured to actuate one or more of the plurality of switches, and the spring is configured to bias a cam follower into engagement with a cam profile on a bracket and bias the actuating lever into an actuation position.
Apparatus and associated methods may relate to a natural-gait therapy device for enabling a user with a Spinal Cord Injury (SCI) to independently transition between a locked standing position and a user controlled coordinated natural-gait movement, the method including an unlocking of a left and a right foot movement members, rotating one of the unlocked left and right movement members to a half-period gait position that is 180 degrees out of phase with the un-rotated one of the left and right movement members, coupling the left and right movement members in the 180 degree phase differential orientation, and rotating both left and right leg movement members in a natural-gait motion. In some embodiments, the left and right movement members may be uncoupled to permit a gravity assisted return to a standing position. The transition between the standing and the natural-gait motion may facilitate a user to stand before or sit after performing natural-gait therapy.
Apparatus and associated methods relate to a collapsible chair having a collapsible lateral support rod, a pair of front legs, a pair of front chair support rods, and a pair of mechanical junctions configured to couple with an associated pair of poles, such that the collapsible chair is adapted to collapse into an easy-to-carry volume. In an illustrative example, the mechanical junctions may be releasably and/or shock-cord-coupled to various support rods and/or legs. The mechanical junctions may include locking mechanisms to lock the associated poles into a fixed position relative to the mechanical junctions, for example. The collapsible chair may include gear loops for hanging of gear from the collapsible chair. In various embodiments, a collapsible chair may advantageously provide a full size, lightweight chair configured for compact storage in a stowage bag for high portability during outdoor hiking.
Apparatus and associated methods relate to a camera mount system (CMS) releasably mountable to vehicle surfaces via a plurality of leg members, each leg member extending radially from a hub to support an articulating wrist member with a distal suction attachment. In an illustrative example, the articulating wrist may adjust vertically to permit secure sealing of the suction attachment to a local vehicle roof surface. Each of the articulating wrists may couple to a corresponding distal end of one of the leg members via, for example, a ball joint. The wrist angle relative to the leg member may be releasably locked by hand operation of a locking control that, for example, also locks the angle of the wrist relative to the suction attachment. Some systems may advantageously be quickly, releasably and securely mounted from non-planar and/or irregularly shaped vehicle surfaces, for example, roofs, roll cages, hulls, doors, hoods, and bodies.
Apparatus and associated methods relate to fall-protection safety connector having alignment indicators located on both a static end and a dynamic end of a deformable energy-absorbing device that when deformed visually presents the alignment indicators as misaligned. In an illustrative embodiment, the fall-protection safety connector may be configured to securely connect to a securement member. In some embodiments, a user may connect to the fall-protection safety connector by attaching a lanyard to an aperture coupled to the dynamic end of the deformable energy-absorbing device. Before using the fall-protection safety connector, the user may visually inspect the alignment of the alignment indicators to ascertain the readiness of the connector. Misaligned alignment indicators may advantageously indicate to the user that the remaining energy-absorbing deformation capability of the connector may be below a predetermined specification.
Embodiments generally relate to assembly and methods for precisely rigging a linear variable differential transformer (LVDT). For example, the probe rod assembly of a dual tandem LVDT may comprise two moveable cores, a probe fitting, and a probe rod.
A linear actuator comprising a first assembly, a second assembly, and a magnetic sensor. The second assembly is linearly movable with respect to the first assembly such that the linear actuator is configured so as to be in one of a plurality of linear positions. The first assembly and the second assembly cooperatively define a magnetic pathway. The magnetic pathway is configured to vary in length with linear movement of the first assembly with respect to the second assembly. The magnetic sensor is configured to output a signal indicative of the magnetic field flux routed via the magnetic pathway.
Apparatus and associated methods relate to a ratchet strap system configured with a ball-shaped handgrip adapted to manipulate a ratchet strap drive shaft. In an illustrative example, the handgrip may include a substantially spherical distal portion coupled to the drive shaft via a substantially cylindrical neck member. The handgrip may, for example, be configured for after-market installation by receiving a shaft extension member of the drive shaft. Some handgrips may include opposing radial apertures for a retention pin to longitudinally fix the handgrip to the shaft extension member. A pliable resilient member disposed at the distal end may prevent decoupling prior to tensioning the strap. In various embodiments, the deployment time of a ratchet strap system may, for example, be reduced by using the handgrip to facilitate initial winding of a load securing strap, and to wind excess strap length for storage in conjunction with an elastic retaining loop.
Apparatus and associated methods relate to a storage container and storage container lid configured for stowage and extraction of panels, the panels having complementary mating interfaces that cause the panels to stack onto one another as the panels enter the storage container lid, and to couple to one another as the panels are extracted from the storage container lid. In an illustrative example, the mating interface for the panels may include a first linearly decreasing section, a linearly increasing section, and a second linearly decreasing section that complements the mating interface of an adjacent panel. The panels may slide along a channel into and out of an opening in the storage container lid. A panel storage system may advantageously store panels in the lid of the storage container, while still providing access to the contents of the storage container by opening of the lid.
A multi-pole switch assembly includes a housing, a plurality of switches, and an actuator. The switches are disposed within the housing, and each switch is coupled to receive an actuation force and is configured, upon receipt of the actuation force, to move between a first position and a second position. The actuator is disposed at least partially within the housing and is configured to at least substantially simultaneously engage, and thereby supply the actuation force to, each switch to thereby move all of the switches, with substantial simultaneity, to either the first or the second position.
An energy harvester for harvesting energy from a rotating machine having a rotatable machine shaft includes a non-magnetic housing, a harvester shaft, a rotor, and a plurality of electrically isolated stators. The housing is adapted to couple to the rotating machine. The harvester shaft is disposed within the housing and is adapted to couple to and rotate with the machine shaft or in some cases becomes the rotating shaft of the machine. The rotor is disposed within the housing and is coupled to and surrounds at least a portion of the harvester shaft. The rotor comprises an N-pole permanent magnet.
Apparatus and associated methods relate to a housing having a deformable membrane configured to interface with a programming module of an industrial product, where the deformable membrane includes a waved surface designed to deform under the finger pressure of a human user. In an illustrative example, the housing may be formed of a rigid material (e.g., polyamide) to serve as a protective barrier for the industrial product.
Embodiments relate generally to methods and systems for providing a bias mechanism for a momentary toggle switch. A toggle switch may comprise a housing; a plurality of contacts disposed within the housing; an actuating lever coupled to a pivot pin, wherein the actuating lever extends into the housing; an actuator assembly coupled to the actuating lever, configured to actuate a movable contact of the plurality of contacts between a first position and a second position; and a biasing mechanism configured to bias the actuator assembly into the first position, wherein the biasing mechanism comprises a torque spring.
A measurement assembly for determining a torque applied to a shaft including a disk coupled to a motor such that the motor is to drive rotation of the disk about a central axis. The measurement assembly also includes a first ring and second ring coupled to the disk and the shaft, respectively, and a sensor unit to measure a rotational displacement between the first and second rings about the central axis. The measurement assembly further includes one or more deformable members coupled between the disk and the shaft, each including a pair of ends and a body extending therebetween.
Apparatus and associated methods relate to a body-worn unitary harness having a shoulder portion and a waist portion in tensile communication with one another, such that both the shoulder and the waist portions can be simultaneously adjusted using a single adjustment mechanism to conform to a wearer’s body. In an illustrative embodiment, a length of webbing may thread through an angle-turning buckle and change direction therein. Tensile forces in the length of webbing may be directed in different directions on either side of the angle-turning buckle.
An attachment bracket or reinforcement plate is provided. The bracket is attached to an area of the respective product and provides an attachment location which is durable and maintains the structure of an inside corner of a cut in a melamine or wood product. In certain examples described herein, these storage systems may be held on a wall using a rail system. That is, a rail is attached to the wall which has an outward extending rail arm and upward extending flange. The flange engages with a notch or slot in the attachment bracket, which is secured to the melamine or wood product.