Abstract: An adjustable assembly includes a golf club shaft, a golf club head having a hosel portion with a hosel opening, a hosel insert, a shaft adapter, and a fastener. The hosel insert is secured to the hosel portion and includes at least one inwardly extending pawl. The adapter extends about a longitudinal axis, and defines a shaft opening. The adapter includes outwardly projecting teeth aligned with the hosel insert. Each tooth includes leading and trailing surfaces. The leading surface is shaped to enable rotational movement of the adapter about the axis with respect to the hosel insert in a first rotational direction. The trailing surface is shaped to selectively engage the pawl to inhibit rotational movement of the adapter with respect to the hosel insert in a second rotation direction that is opposite the first direction. The fastener is releasably coupled to the head and the adapter.

Abstract: An imaging system and method in which the system carries out the method which includes the steps of: (a) determining an incident field, (b) using the incident field and a volume integral equation (VIE) to determine a total field, (c) predicting voltage ratio measurement at a receiving antenna by using the volume integral equation (VIE), wherein the VIE includes a vector Green's function, (d) collecting voltage ratio measurements from one or more receiving antennas, and (e) comparing the predicted voltage ratio measurements to the collected voltage ratio measurements to determine one or more properties of the object being evaluated. An S-parameter based inverse scattering method using the vector Green's function and VIE as its core is also described.

Abstract: An adjustable assembly includes a golf club shaft, a golf club head having a hosel portion with a hosel opening, a hosel insert, a shaft adapter, and a fastener. The hosel insert is secured to the hosel portion and includes at least one inwardly extending pawl. The adapter extends about a longitudinal axis, and defines a shaft opening. The adapter includes outwardly projecting teeth aligned with the hosel insert. Each tooth includes leading and trailing surfaces. The leading surface is shaped to enable rotational movement of the adapter about the axis with respect to the hosel insert in a first rotational direction. The trailing surface is shaped to selectively engage the pawl to inhibit rotational movement of the adapter with respect to the hosel insert in a second rotation direction that is opposite the first direction. The fastener is releasably coupled to the head and the adapter.

Abstract: An adjustable assembly includes a golf club shaft having a tip portion, a golf club head, a hosel insert, a shaft adapter and a fastener. The hosel portion defines an upper hosel opening. The hosel insert is secured to the hosel portion and includes a first set of upwardly extending projections. The shaft adapter extends about a first longitudinal axis, and defines a shaft opening for engaging the tip portion. The shaft adapter includes a second set of downwardly extending projections for selectable engagement with the first set of projections. The first and second sets of projections are shaped to enable rotational movement of the shaft adapter about the first axis with respect to the hosel insert in a first rotational direction, and to inhibit rotational movement of the shaft adapter with respect to the hosel insert in a second rotation direction, opposite the first rotational direction.

Abstract: A protective apparel system is provided that comprises a helmet covering the wearer's head and a gown covering the wearer's body. A protective barrier extends between the helmet and the gown in order to separate an interior space from the exterior space. The helmet may be a reusable rigid helmet with an exterior surface that can be repeatedly disinfected. The helmet may also include an air transmission system.

Abstract: An adjustable assembly includes a shaft, a club head having a hosel portion with a hosel opening, a hosel insert, a shaft adapter, and a fastener. The hosel insert is secured to the hosel portion and includes at least one pawl. The hosel portion or the hosel insert includes a first set of projections. The adapter extends about a first longitudinal axis and includes a second set of teeth aligned with the hosel insert, and a third set of projections for selectable engagement with the first set. Each tooth includes first leading and trailing surfaces. The first leading surface is shaped to enable rotational movement of the adapter about the axis with respect to the hosel insert in a first rotational direction. The first trailing surface is shaped to selectively engage the pawl to inhibit rotational movement of the adapter in a second rotation direction, opposite the first direction.

Abstract: An adjustable assembly includes a shaft, a club head having a hosel portion, a hosel insert, a shaft adapter, and a fastener. The hosel insert is secured to the hosel portion and includes a plurality of inwardly projecting teeth. Each tooth includes leading and surfaces. The adapter extends about a first longitudinal axis and includes at least one outwardly extending flexible or biased element aligned with the teeth. The leading surfaces are shaped to enable rotational movement of the adapter about the axis with respect to the hosel insert in a first rotational direction. The trailing surfaces are shaped to selectively engage the element to inhibit rotational movement of the adapter in a second rotation direction, opposite the first rotational direction. The assembly is adjustable between several locked positions. Each of the locked positions defines a separate loft and/or lie position of the head with respect to the shaft.

Abstract: Medical lens assemblies and sterile drapes with a lens assembly are presented herein. In one embodiment, a lens assembly includes an annular lens housing that is attachable to a medical drape. The lens housing is configured to releasably attach to a medical device, such as a surgical microscope. An annular lens cover holder is removably attachable to the lens housing. A lens cover for shielding the objective lens is pivotably hinged to the lens cover holder. In another embodiment, a drape assembly includes a flexible body sized to cover an optical device. A lens housing attached to the drape body is engageable with the optical device to attach proximate an objective lens thereof. A lens cover holder is removably attached to the lens housing to rotate about a first axis. A lens cover is mounted to the lens cover holder to pivot about a second, different axis.

Abstract: A system that enables end-users who are not skilled in the art of traditional computer programming to intuitively program, configure and manage computers and devices and/or systems that contain many computers and devices. End-users connect graphical parts using graphical wires using a graphical user interface. The timing of the messages that are carried in the wires that connect the parts is deterministic, consistent and intuitive to the end-user. Parts and their user-configurable features are typically designed, fully tested and certified by the original equipment manufacturer or independent software vendor. This invention relates to ubiquitous computing, a model of human-computer interaction in which information processing has been thoroughly integrated into everyday objects and activities associated with those objects.

Abstract: Medical lens assemblies and sterile drapes with a lens assembly are presented herein. In one embodiment, a lens assembly includes an annular lens housing that is attachable to a medical drape. The lens housing is configured to releasably attach to a medical device, such as a surgical microscope. An annular lens cover holder is removably attachable to the lens housing. A lens cover for shielding the objective lens is pivotably hinged to the lens cover holder. In another embodiment, a drape assembly includes a flexible body sized to cover an optical device. A lens housing attached to the drape body is engageable with the optical device to attach proximate an objective lens thereof. A lens cover holder is removably attached to the lens housing to rotate about a first axis. A lens cover is mounted to the lens cover holder to pivot about a second, different axis.

Abstract: A system that enables end-users who are not skilled in the art of traditional computer programming to intuitively program, configure and manage computers and devices and/or systems that contain many computers and devices. End-users connect graphical parts using graphical wires using a graphical user interface. The timing of the messages that are carried in the wires that connect the parts is deterministic, consistent and intuitive to the end-user. Parts and their user-configurable features are typically designed, fully tested and certified by the original equipment manufacturer or independent software vendor. This invention relates to ubiquitous computing, a model of human-computer interaction in which information processing has been thoroughly integrated into everyday objects and activities associated with those objects.

Abstract: Medical lens assemblies and sterile drapes with a lens assembly are presented herein. In one embodiment, a lens assembly includes an annular lens housing that is attachable to a medical drape. The lens housing is configured to releasably attach to a medical device, such as a surgical microscope. An annular lens cover holder is removably attachable to the lens housing. A lens cover for shielding the objective lens is pivotably hinged to the lens cover holder. In another embodiment, a drape assembly includes a flexible body sized to cover an optical device. A lens housing attached to the drape body is engageable with the optical device to attach proximate an objective lens thereof. A lens cover holder is removably attached to the lens housing to rotate about a first axis. A lens cover is mounted to the lens cover holder to pivot about a second, different axis.

Abstract: Medical lens assemblies and sterile drapes with a lens assembly are presented herein. In one embodiment, a lens assembly includes an annular lens housing that is attachable to a medical drape. The lens housing is configured to releasably attach to a medical device, such as a surgical microscope. An annular lens cover holder is removably attachable to the lens housing. A lens cover for shielding the objective lens is pivotably hinged to the lens cover holder. In another embodiment, a drape assembly includes a flexible body sized to cover an optical device. A lens housing attached to the drape body is engageable with the optical device to attach proximate an objective lens thereof. A lens cover holder is removably attached to the lens housing to rotate about a first axis. A lens cover is mounted to the lens cover holder to pivot about a second, different axis.

Abstract: Medical lens assemblies and sterile drapes with a lens assembly are presented herein. In one embodiment, a lens assembly includes an annular lens housing that is attachable to a medical drape. The lens housing is configured to releasably attach to a medical device, such as a surgical microscope. An annular lens cover holder is removably attachable to the lens housing. A lens cover for shielding the objective lens is pivotably hinged to the lens cover holder. In another embodiment, a drape assembly includes a flexible body sized to cover an optical device. A lens housing attached to the drape body is engageable with the optical device to attach proximate an objective lens thereof. A lens cover holder is removably attached to the lens housing to rotate about a first axis. A lens cover is mounted to the lens cover holder to pivot about a second, different axis.

Abstract: A patient positioner (100) includes a central portion (102) and a pair of shoulder restraints (105,106) extending distally away from a first side (107) of the central portion. Each shoulder restraint can terminate at an attachment area (108,109). Each attachment area can comprise fastener (114,115). Complementary fasteners (214,215) can be disposed on the central portion (102). The shoulder restraints can then be folded (116) about a patient's shoulders, with the fasteners attaching to the complementary fasteners. A plurality of securement straps (121,122,123,124,125,126) configured to attach the patient positioner to a procedure table (701) can extend distally from the second side (110) and the third side (111) of the central portion, respectively.

Abstract: Medical lens assemblies and sterile drapes with a lens assembly are presented herein. In one embodiment, a lens assembly includes an annular lens housing that is attachable to a medical drape. The lens housing is configured to releasably attach to a medical device, such as a surgical microscope. An annular lens cover holder is removably attachable to the lens housing. A lens cover for shielding the objective lens is pivotably hinged to the lens cover holder. In another embodiment, a drape assembly includes a flexible body sized to cover an optical device. A lens housing attached to the drape body is engageable with the optical device to attach proximate an objective lens thereof. A lens cover holder is removably attached to the lens housing to rotate about a first axis. A lens cover is mounted to the lens cover holder to pivot about a second, different axis.

Abstract: Medical lens assemblies and sterile drapes with a lens assembly are presented herein. In one embodiment, a lens assembly includes an annular lens housing that is attachable to a medical drape. The lens housing is configured to releasably attach to a medical device, such as a surgical microscope. An annular lens cover holder is removably attachable to the lens housing. A lens cover for shielding the objective lens is pivotably hinged to the lens cover holder. In another embodiment, a drape assembly includes a flexible body sized to cover an optical device. A lens housing attached to the drape body is engageable with the optical device to attach proximate to an objective lens thereof. A lens cover holder is removably attached to the lens housing to rotate about a first axis. A lens cover is mounted to the lens cover holder to pivot about a second, different axis.

Abstract: An equipment drape (1000) is made from an elongated drape body (1401) that includes an equipment opening (1041). The elongated drape body (1401) is telescopically folded (1403) to form a telescopic drape body (1404). An accordion fold (1501) is then applied to form a rectangular shape (1503). The distal edges (1011,1012) are then folded back over the rectangular shape (1503) to meet at a longitudinal part (1511). Insertion indicators (1043,1044) can be attached to the equipment opening (1041). A user can easily and quickly insert their hands into the equipment opening (1041) to deploy the equipment drape (1000) with a single motion without having to first fumble with and unfold the drape.

Abstract: A branch exchange comprises at least one interface module coupled to a plurality of telecommunication connections including a first telecommunication connection and a second telecommunication connection. A converter is coupled to the at least one interface module and a network interface controller (NIC). The converter is configured to communicate at least one time division multiplexed (TDM) data stream between the converter and the at least one interface module. The converter is further configured to packetize data from one of the telecommunication connections into a first plurality of data packets transmitted to the NIC by the converter. A branch exchange manager is configured to receive the data from the NIC and cause the data to be transmitted over the second telecommunication connection.

Abstract: An imaging system and method in which the system carries out the method which includes the steps of: (a) determining an incident field, (b) using the incident field and a volume integral equation (VIE) to determine a total field, (c) predicting voltage ratio measurement at a receiving antenna by using the volume integral equation (VIE), wherein the VIE includes a vector Green's function, (d) collecting voltage ratio measurements from one or more receiving antennas, and (e) comparing the predicted voltage ratio measurements to the collected voltage ratio measurements to determine one or more properties of the object being evaluated. An S-parameter based inverse scattering method using the vector Green's function and VIE as its core is also described.