1611 results about "Sensor holder" patented technology

The present invention provides a clip-type medical sensor holder for use in positioning a pulse oximetry sensor relative to a patient appendage. In particular, a clip-type sensor holder is provided that clips around a portion of a patient appendage without necessarily applying a clamping force to that appendage to reduce or eliminate vasoconstrication. The sensor holder includes first and second opposing members in an opposing and hinged relationship that allows these members to move from an open position to a closed position relative to one another. When in the closed position, these opposing members are sized to receive a patient appendage (e.g., a finger) therebetween. A resilient member interconnected to each of the members maintains the sensor holder in the closed position about the patient appendage. In one embodiment, the sensor clip is formed as a one-piece unit allowing simplified construction and a reduced part count.

An auto-focusing device with voice coil motor for position feedback comprises a lens holder, a sensor holder, a permanent magnet set, a yoke and a base. The lens holder holds a lens barrel and is wound around with at least two coils wound in opposite directions. The sensor holder holds an image sensor. The permanent magnet set includes at least two permanent magnets stacked together with opposing poles to form a multi-pole permanent magnet set. The permanent magnet set is furnished on the periphery of lens holder and corresponds to the two coils on lens holder. The permanent magnet set is disposed on the yoke to form a close-loop magnetism so as to increase the density of magnetic lines and the efficiency of magnetic force, save power consumption, and extend the service life of device.

The present invention is directed to a holder for use in positioning a pulse oximeter sensor in multiple selectable locations relative to a patient's extremities. The holder includes at least one flexible elongate member that is conformable to and, preferably, about a patient's extremity. A connector on the elongate member is utilized to secure the elongate member to the patient's extremity. Additionally, the elongate member's inside surface contains one or more recesses for selectively receiving a sensor and holding that sensor relative to one or more positions on the inside surface of the flexible sensor holder. The inclusion of multiple recesses allows medical personnel flexibility in positioning a medical sensor. In one embodiment, the holder includes two elongate members for conforming about two portions of a patient's extremity to reduce movement between the extremity and a sensor held by the sensor holder.

A flexible finger sensor having a finger entrance, a sensor holder at a distal end of the assembly, and a fenestrated region disposed between the finger entrance and the sensor holder. A displacement resistant finger sensor and method of use for reducing motion-related artifacts by mechanical isolation from external forces by providing a resilient sensor body having a digit entrance, a sensor holder, and a fenestrated region between the digit entrance and the sensor holder. The sensor holder maintains sensing elements relative to a user's finger, with said sensing elements being in communication with a monitoring device via a lead wire. The lead wire may extend at a lateral edge of the sensor body. A force to the lead wire may be applied so as to distort the fenestrated region without substantially disturbing the sensing elements relative to the finger surface.

A head set (2) comprises a brain electrical activity (EEG) sensing device (3) comprising EEG sensors (22) configured to be mounted on a head of a wearer so as to position the EEG sensors (22) at selected positions of interest over the wearers scalp, the EEG sensing device comprising a sensor support (4) and a flexible circuit (6) assembled to the sensor support. The sensor support and flexible circuit comprise a central stem (4a, 6a) configured to extend along a center plane of the top of the head in a direction from a nose to a centre of the back of a wearers head, a front lateral branch (4b, 6b) configured to extend across a front portion of a wearer's head extending laterally from the central stem, a center lateral branch (4c, 6c) configured to extend across a top portion of a wearer's head essentially between the wearer's ears, and a rear lateral branch (4d, 6d) configured to extend across a back portion of a wearer's head. The sensor support (4) comprises a base wall (401) and side walls (402) extending along edges of the base wall to form an essentially flat “U” shaped channel (403) in which the flexible circuit (6) is inserted and the base wall comprise EEG sensor orifices (404) to allow access to the EEG sensor contacts or electrodes on the flexible circuit.

A power supply section for an e-vaping device includes a sensor housed in a housing, a sensor holder holding the sensor, the sensor holder disposed in the housing to divide the housing into a first portion and a second portion, and the sensor and the sensor holder configured to substantially prevent air flow from the first portion into the second portion, and a power source disposed in the second portion. The construction of this unit insures that gases that may be produced by outgassing of the battery cell will be vented to the environment and that those gases will be isolated from the air that is mixed with the vaporized e-liquid and inhaled by the user.

A patient positioning system for use with a patient comprises an optical image sensor. The optical image sensor measures an optical image of a tissue structure of an eye of the patient. An image sensor support supports the image sensor. A patient support supports the patient. A linkage is coupled to the image sensor support with the patient support. A processor is coupled to the optical image sensor to determine a gradient of an illumination level of the optical tissue structure image. The processor is coupled to the linkage and configured to articulate the linkage so as to adjust a separation distance from the tissue structure to the image sensor in response to the gradient of the optical tissue structure image.

The invention concerns an automated and robotized platform (1) comprising a battery of miniature reactors (3) containing each a cell culture. The platform comprises an external sensor (7) for measuring at least one optical property of each cell culture contained in each miniature reactor. The platform also comprises a mobile sensor-holder (9) for receiving the external sensor. The sensor-holder includes sensor driving means for moving the external sensor from one miniature reactor to another and for measuring in real time said at least one optical property. The platform further comprises controlling and processing means for receiving real time measurements of the optical property form the external sensor and for real time control of a movement of the mobile sensor-holder.

Apparatus, systems, and methods for inspecting a structure are provided which use a sensor holder constructed from rapid prototyping, such as stereolithography, and which is configured to support a plurality of inspection sensors typically arranged in an ordered matrix array and possibly with one or more additional inspection sensors aligned for inspection of difficult to inspect features of a structure such as radius corner or edge features. Rapid prototype integrated matrix array inspection apparatus, systems, and methods provide fast and efficient methods of constructing custom inspection devices.

Apparatus, systems, and methods for inspecting a structure are provided which use a sensor holder, which is configured to support one or more curved linear inspection sensors and may be constructed from rapid prototyping, such as stereolithography. Integrated curved linear ultrasonic transducer inspection apparatus, systems, and methods provide fast and efficient methods of constructing custom inspection devices and inspecting otherwise difficult-to-inspect curved radius features of structures, such as a corner of a hat stringer.

System, methods and apparatus are provided for securing one or more transducers to a patient. According to one illustrative embodiment, a transducer holder is provided that includes a base, one or more fasteners for securing one or more transducers, respectively, at least one strap attached to the base for securing the base to the patient, wherein at least two of the fasteners have a different color from one another.

The invention discloses an automatic assembly production line of buzzers, which comprises a feeding mechanism, a glue coating mechanism, a buzzer piece placing mechanism, a straight contact pin placing mechanism, a first thermoplastic pipe placing mechanism, an inclined contact pin placing mechanism, a second thermoplastic pipe placing mechanism, a thermoplastic pipe heat sealing mechanism, a contact pin welding mechanism, a dispensing mechanism, a curing mechanism and a detecting and sorting mechanism, which are sequentially arranged on a work table; the glue coating mechanism comprises an automatic shell locating mechanism located behind a glue applicator, and the automatic shell locating mechanism comprises a motor, a rotating jig, an optical fiber sensor, a motor base, a supporting plate and a sensor bracket; the optical fiber sensor is a reflective optical fiber sensor and is arranged to be aligned to the shell; and the optical fiber sensor is installed on the upper part of the sensor bracket, and the lower part of the optical fiber sensor is fixed to the side plate of the supporting plate. The automatic assembly production line disclosed by the invention has the advantages of smart design and simple structure, realizes high level automation, replaces the manual operation, reduces the cost of manpower and physical resources and improves the production efficiency of the assembly line.

An apparatus for detecting dislodgement of a needle inserted into a patient includes a sensor for detecting wetness due to blood and a sensor holder to secure the sensor to the patient such that the sensor detects wetness due to blood loss from the patient upon dislodgement of the needle. Methods and apparatuses for detecting, monitoring and / or controlling blood loss from a patient due to needle dislodgement are also provided.

A sensor carrier for an in-tube inspection scraper has setting places for installation of monitoring sensors responsive to any diagnostic parameters of a pipeline being inspected. The carrier includes a set of kinematically interconnected sensor supports that are subjected to an elastic force in the radial direction from the carrier axis. The supports are made as elastic ring-shaped elements or as rows of interconnected elements adjoining the pipe wall or are fixed on elastic components such as rings or sectors of sleeves, and / or are connected to a housing capable of bending. Installed on the supports between the sensors and the internal surface of the pipeline are elastic gaskets. The carrier allows one to increase the efficiency of the flaw detection in pipelines having defects of geometry in the cross section.

An apparatus for measuring bioelectrical signals is provided. The apparatus includes a sensor electrode, a sensor support, and a main body. The sensor electrode has a tapering portion that narrows toward one end and a protruding portion that extends from the one end of the tapering portion, contacts a body part, and senses bioelectrical signals. The sensor support maintains the contact between the sensor electrode and the body part. The main body is connected to the sensor support and is wearable on a living body.

A card dispenser includes a dispenser body, which defines an accommodation chamber for receiving a stack of cards for dispensing, a conveying unit mounted in the dispenser body and controlled to deliver the loaded cards from the accommodation chamber through a delivery path to an output port individually, an adjustment structure for adjusting the length and width of the accommodation chamber subject to the size of the loaded cards, a mobile base member detachably inserted into the dispenser body and provided with an adjustment device for adjusting a gap of the delivery path subject to the thickness of the loaded cards in the accommodation chamber, and detection devices respectively mounted in the dispenser body and the mobile base member for detecting accurate dispensing of every card through the delivery path to the output port.

A marine seismic streamer includes a jacket substantially covering an exterior of the streamer. At least one strength member is disposed along the length of the jacket. A sensor mount is coupled to the strength member. At least one particle motion sensor is suspended within the sensor mount at a selected location along the jacket. The at least one particle motion sensor is suspended in the jacket by at least one biasing device. A mass of the particle motion sensor and a force rate of the biasing device are selected such that a resonant frequency of the particle motion sensor within the sensor jacket is within a predetermined range. The sensor mount is configured such that motion of the jacket, the sensor mount and the strength member is substantially isolated from the particle motion sensor.

A motor stator section (3a) is furnished with a busbar (51) attached to an armature (3), and with a circuit board (52) attached to the busbar (51). A parts accommodation recess (516) is formed in the busbar (51) surface that opposes the circuit board (52), and a holding recess (512), in which is anchored a sensor holder (54) that retains Hall sensors (53) mounted on the circuit board (52) is formed in the busbar (51) inner circumferential surface. Further, grooves are formed in the circuit board (52), the sensor holder (54), and the busbar (51), wherein fitting a jig (9) to these grooves enables high-precision assembly of these components.

The present invention is directed to holders for a sensor. The holders apply pressure to the sensor to prevent a venous blood signal without dampening the arterial blood signal and are optically opaque to shield ambient light from reaching the sensor.

A marine seismic streamer includes a jacket substantially covering an exterior of the streamer. At least one strength member is disposed along the length of the jacket. A sensor mount is coupled to the strength member. At least one particle motion sensor is suspended within the sensor mount at a selected location along the jacket. The at least one particle motion sensor is suspended in the jacket by at least one biasing device. A mass of the particle motion sensor and a force rate of the biasing device are selected such that a resonant frequency of the particle motion sensor within the sensor jacket is within a predetermined range. The sensor mount is configured such that motion of the jacket, the sensor mount and the strength member is substantially isolated from the particle motion sensor.

A conformable medical sensor is provided that has particular applicability for positioning a pulse oximeter sensor relative to a patient appendage. In one embodiment, the sensor holder includes a patient engaging member that is plastically deformable to permit the sensor holder to be conformed to the patient appendage, and plastically deformable to provide a retention force relative to the patient appendage. For example, the engaging member may be bent into a first shape that disposes first and second portions of the sensor holder into an opposing relationship the for receiving a patient appendage therebetween. Once deformed, the engaging member may be elastically deformed to a second shape to provide a retention force so as to maintain the sensor holder and a sensor interconnected thereto in contact with the patient appendage. In another embodiment, and the sensor holder may include a deformable backing layer that is plastically and elastically deformable, as described above, together with a patient interface layer having a recess located for the receipt of the sensor therein.

A motion detecting device has a stationary plastic sensor carrier. The stationary plastic sensor carrier has two sensor carrier sections and an insulation section. The carrier section has a first plastic material and the insulation section has a second plastic material. The insulation section extends between two adjacent sensor carrier sections. The sensor carrier sections and the at least one insulation section are integrally formed by a plastic molding process. Plated metal sensing surfaces are provided on the surfaces of the sensor carrier sections. Surface electrode contacts connect the plated metal sensing surface electrodes with a PCB and define at least one capacitive area between at the plated metal sensing surface electrodes. A plastic knob element is movably arranged on the plastic sensor carrier, such that the insulating plastic separator sections and the plated metal sensing surface electrodes are at least partly covered by the knob element.

The invention relates to an inertia measurement device for deep-sea inertia navigation, which consists of six accelerometers, three gyros, a sensor bracket, a damping material, damping internal and external brackets and a mounting surface. The accelerometers and the gyros are arranged at the regular hexahedral sensor bracket. The damping internal bracket is fixed at the sensor bracket, the damping material is fixed at the damping internal bracket, the internal bracket is connected with the external bracket through the damping material and finally connected to the mounting surface, and the mounting surface is provided with a positioning surface for positioning at initial alignment. The measurement device is used for measuring the inertia of the deep-sea inertia navigation, and has the advantages of high precision and good damping property.

An off-chip tensile test experimental platform for micro-component mechanical property belongs to the field of micro-component mechanical property test in a micro-electro-mechanical system. The experimental platform comprises a piezoelectric drive unit, a micro-force detection unit, a displacement detection unit, a sample arranging and adjusting unit, an image monitoring and collecting unit and a pedestal. The piezoelectric drive unit consists of a package structure with a piezoelectric ceramic actuator arranged therein and a support. The micro-force detection unit consists of a force sensor and a force sensor support plate. The displacement detection unit is composed of a displacement sensor and a displacement sensor support. The sample arranging and adjusting unit consists of a five-dimensional micro-positioning stage, a movable stage and a static stage. The image monitoring and collecting unit consists of a CCD camera, a microscope and a microscope stand. The off-chip tensile test experimental platform for micro-component mechanical property overcomes the disadvantages of the prior tensile test experimental device, and has the advantages of low cost, simple structure, higher accuracy and smooth upgrade to satisfy the requirement of off-chip tensile test of micro-component mechanical property.

A seismic streamer includes a jacket and at least one seismic sensor disposed in a sensor holder inside the jacket. The at least one sensor is oriented inside the sensor holder such that a response of the at least one sensor is substantially longitudinally symmetric.

A universal transducer mounting bracket (10) that may be used to mount a transducer (12) to either a transom (14) or a trolling motor (16). A mounting body (18) broadly comprises a transom attachment (36) for mating to the transom (14), at least one hole (20) through the transom attachment (36) for accepting one or more fasteners therethrough in order to secure the bracket (10) to the transom (14), and an arcuate top wall (22) for mating to the trolling motor (16). The mounting body (18) preferably further includes two side walls (26) and a bottom wall (30) forming the transom attachment (36) for rigidly securing the bracket (10) to the transom (14). The transom attachment (36) may be defined by the walls (22,26,30,34) forming a perimeter around an opening, thereby making the bracket (10) hollow.

The invention relates to a pipeline robot for internal diameter measurement. The pipeline robot for the internal diameter measurement comprises a supporting mechanism, a main driving mechanism and a laser measurement mechanism, wherein the supporting mechanism mainly consists of a nut for a ball screw, a step motor I, wheels, a connection rod, a push rod and the like; the main driving mechanism mainly consists of a worm gear, a worm rod, a belt wheel, a transmission belt and the like; and the linear movement of the pipeline robot can be realized through the driving of a step motor II. The laser measurement mechanism is mainly composed of a sensing measuring head, a sensor bracket and a step motor III. The pipeline robot provided by the invention can be used for measuring an internal diameter of a long pipeline, and can particularly meet the measurement requirement of thin and long pipes with the larger range of the internal diameter. The pipeline robot provided by the invention not only can be used for carrying out non-contact measurement on the internal diameters of the pipelines with different sizes but also can realize various measurements by means of replacing a measurement head of a sensor, such as flaw detection and the like. The pipeline robot has the advantages of high measurement precision and convenience in use.

In a busbar unit, which is a distributing device arranged to supply electrical currents to coils, a busbar holder is arranged to support coil connection busbars and sensor connection busbars. A bottom surface portion of a busbar holder body portion includes a bearing holder holding a bearing defined therein, and includes resistors and capacitors defining a portion of a Hall IC circuit arranged thereon. The Hall IC circuit is arranged to input and output electrical signals to or from Hall ICs. An upper surface portion includes sensor holders each holding a separate one of the Hall ICs defined therein. A connector portion is arranged to project radially outward from the busbar holder body portion. The sensor connection busbars and each of the coil connection busbars are arranged one above another along an axial direction.

A motor includes a sensor holder that is integral with an annular ring of an insulator of a stator. At least a portion of a Hall element is accommodated in the sensor holder. By virtue of such configuration, a position of the Hall element with respect to the stator will be determined with precision.