Abstract: A living-body monitoring device includes an electronic device including a circuit board and a living-body wearing instrument fixing or sealing the electronic device. A control unit, a battery, and an antenna are mounted on the circuit board. The circuit board has a length in a longitudinal direction and a length in a transverse direction and includes one or more copper-foil pattern layers. The antenna is disposed at one end in the longitudinal direction of the circuit board.

Abstract: The present disclosure describes devices, systems, and methods that can be used to collect sensor data from, for instance, a sensor device that has been embedded in an article of apparel. The sensor device can be used, for instance, to monitor the athletic activity of an individual wearing the apparel into which the electronic device has been embedded. Embodiments of the sensor device include a memory, a wireless interface, and one or more processor. With these elements, the sensor device may receive instructions indicating what sensor data to collect, collect the sensor data, store the sensor data, and transmit the stored sensor data to the remote device upon completion of the activity.

Abstract: A motion state monitoring system according to the present disclosure is a motion state monitoring system configured to monitor a motion of a subject based on a result of detection by each of a plurality of sensors attached to a plurality of respective body parts of a body of the subject, the motion state monitoring system including: a display control unit configured to display, on one screen, a measurement result icon indicating a result of measurement of a motion to be monitored and a display setting area for setting an area that displays the result of measurement, the result of measurement being acquirable from the sensor attached to the body part of the body of the subject; and an acceptance unit configured to accept a setting operation for the display setting area for setting an area that displays the result of measurement for the measurement result icon.

Abstract: It is specified which sensor icons displayed on a display unit a plurality of sensors used in a motion state monitoring apparatus correspond to. A motion state monitoring system according to this embodiment is a motion state monitoring system including a plurality of sensors corresponding to a plurality of respective body parts of a body of a subject and a motion state monitoring apparatus configured to monitor motions of the subject in accordance with results of detection from the plurality of sensors, in which the motion state monitoring apparatus includes a display unit configured to display a plurality of sensor icons corresponding to the plurality of respective sensors; and a display control unit configured to change a display aspect of the corresponding sensor icon in accordance with an input from one of the plurality of sensors.

Abstract: A motion state monitoring system includes a plurality of sensors attached to a plurality of respective subjects; and a plurality of motion state monitoring apparatuses. Each of the plurality of motion state monitoring apparatuses includes: an icon display unit configured to display a plurality of sensor icons corresponding to the plurality of respective sensors; a display control unit configured to cause the icon display unit to display a sensor a distance of which from the motion state monitoring apparatus is within a predetermined distance among the plurality of sensors; a process unit configured to make, in accordance with the setting operation, the sensor corresponding to the sensor icon correspond to the body part of the subject to which the sensor is to be attached; and a control unit configured to change, in accordance with an input from the sensor, a display aspect of the corresponding sensor icon.

Abstract: A motion state monitoring system according to the present disclosure is configured to monitor a motion state at a target part of the body of a subject, and includes: a measuring instrument configured to measure a motion state; and a motion state monitoring apparatus configured to monitor the motion state, in which the measuring instrument includes: a sensor configured to detect the motion state; and a holding part configured to hold the sensor, the holding part includes a bag formed of a stretchable member, the bag includes an insertion opening extending in one direction and being configured to hold the sensor inserted through the insertion opening thereinside, and when the holding part holding the sensor thereinside is attached to the target part, the holding part is attached to the target part in such a manner that the bag stretches in the one direction.

Abstract: Provided is a gait measurement device that includes an acquisition unit that acquires sensor data related to a motion of a foot, an interpolation unit that interpolates interpolation data into a period in which the sensor data is lost, a calculation unit that calculates a gait parameter by using the sensor data obtained by interpolating the interpolation data by the interpolation unit, and a transmission unit that transmits the gait parameter calculated by the calculation unit.

Abstract: A motion state monitoring system according to the present disclosure is a motion state monitoring system configured to monitor a specified motion to be monitored of a subject by two or more sensors selected from among a plurality of sensors made to correspond to a plurality of respective body parts of the subject, the motion state monitoring system including: an arrangement mechanism in which the two or more sensors are arranged in a known direction; a calibration execution unit configured to perform a calibration of the two or more sensors arranged in the known direction by the arrangement mechanism; and a monitoring result generation unit configured to generate a result of the monitoring of the motion to be monitored of the subject based on results of detection by the two or more sensors attached to the subject after the calibration is completed.

Abstract: A motion state monitoring system according to the present disclosure is configured to monitor a motion state at a target part of the body of a subject, and include: an arithmetic processing unit configured to generate a calculation result representing the motion state based on a detection result of a sensor configured to detect the motion state; an image processing unit configured to perform image processing on at least one of a photographed image obtained by photographing the motion state and a drawn image obtained by drawing the motion state; and a display unit configured to display the image-processed image and the calculation result in synchronization with each other.

Abstract: According to an aspect, provided is a biosensor capable of highly accurate measurement. The present disclosure relates, in an aspect, to a biosensor including: a substrate with a conductive part provided on one main surface, the conductive part including an electrode pair having a working electrode and a counter electrode; a reagent layer placed on the working electrode and the counter electrode; and a flow channel for allowing a sample to flow from a sample supply port to the reagent layer.

Abstract: A glucose detection or monitoring system that includes a VCSEL laser with one or more active regions having quantum wells and barrier. The active regions are surrounded by one or more p-n junctions. The one or more active regions can include a selected shape structure, and one or more tunnel junctions (TJ). One or more apertures are provided with the selected shape structure, one or more buried tunnel junctions (BTJ) or oxide confine apertured, additional TJ's, planar structures and or additional BTJ's created during a regrowth process that is independent of a first growth process with a VCSEL output determined in response to a monitoring application of the VCSEL, the VCSEL having an HCG grating and a bottom DBR. A housing of a wearable device interior houses the VCSEL laser.

Abstract: An applicator for inserting a sensor measuring biometric information into the skin of a user according to the present disclosure, comprising: an applicator body having an applicator body coupling portion; an insertion unit for moving a sensor unit from a first position spaced apart from the user's skin to a second position where the sensor is inserted into the user's skin, the sensor unit including the sensor and a sensor unit housing in which the sensor is attached; and a column member which has the insertion unit attached thereto, comprises a column member coupling portion corresponding to the applicator body coupling portion, and is fixed to the applicator body in a manner that the column member coupling portion is engaged with the applicator body coupling portion.

Abstract: The invention provides a non-invasive blood glucose monitoring device with a wearing fit detection function, comprising a substrate, a blood glucose monitoring module, an optical feedback sensing module and at least one light-blocking wall. The substrate defines a first setting area for disposing the blood glucose monitoring module and a second setting area for disposing the optical feedback sensing module. The second setting area is between an edge of the substrate and the first setting area. The optical feedback sensing module includes at least one light-emitting element and at least one light-receiving element. Each light-emitting element emits a light signal corresponding to at least one specific wavelength, and each light-receiving element receives the light signal corresponding to the at least one specific wavelength, after being reflected, as a basis for determining the wearing fit. The at least one light-blocking wall is located between the first setting area and the second setting area.

Abstract: A glucose monitoring system comprising: a glucose sensor configured to output a glucose sensor output signal indicative of an estimate of a glucose level of a user of the glucose monitoring system; a movement sensor configured to output a movement sensor output signal indicative of detected movement of the user; and a controller configured to generate an estimate of a current glucose level of the user based on the glucose sensor output signal and the movement sensor output signal.

Abstract: A blood glucose measurement device according to an embodiment of the present invention comprises: a measurement unit that is partially inserted into the body of a subject and generates a blood glucose measurement signal by measuring a blood glucose concentration of the subject; a control unit that generates blood glucose measurement data by converting the blood glucose measurement signal into digital data; and a storage unit that stores the blood glucose measurement data, wherein the control unit stores the preset first verification data in the storage unit, and stores the blood glucose measurement data in the storage unit continuously to the first verification data.

Abstract: A blood glucose measurement device according to an embodiment of the present invention comprises: a measurement unit that is partially inserted into the body of a subject and generates a blood glucose measurement signal by measuring a blood glucose concentration of the subject; a control unit that generates blood glucose measurement data by converting the blood glucose measurement signal into digital data; a storage unit that includes a plurality of storage areas and stores the blood glucose measurement data in the plurality of storage areas; and a communication unit that transmits the blood glucose measurement data stored in at least one of the plurality of storage areas to an external device.

Abstract: A blood glucose sensing system includes a plurality of physiological sensors. The system can estimate blood glucose based on discrete invasive blood glucose estimates from a blood sample, discrete noninvasive blood glucose estimates derived from optical sensors, and continuously-calculated blood glucose estimates derived from a nonlinear state-space model of glucose and insulin reactions within a human body. The state-space model has user-entered values corresponding to their insulin and meal intake. The user's blood glucose is estimated from a combination of the discrete invasive blood glucose estimates, the discrete noninvasive blood glucose estimates and the continuously-calculated blood glucose estimate.

Abstract: The present disclosure relates to a continuous glucose monitoring device, in which a body attachment unit is manufactured so as to be assembled in an applicator, thereby minimizing additional work for a user in attaching the body attachment unit to a body and allowing attachment of the body attachment unit to the body simply by operation of the applicator. In particular, a wireless communication chip is provided in the body attachment unit to enable communication with an external terminal, thereby enabling simple and convenient use without additional work of connecting a separate transmitter and allowing easier maintenance. In addition, the continuous glucose monitoring device is activated by a user's operation after the body attachment unit is attached to the body, such that an activation start time can be adjusted to a time appropriate to the user's needs, and the continuous glucose monitoring device can be activated in a stabilized state, and thereby can monitor blood glucose more accurately.

Abstract: A system for measuring a concentration of a component included in a body fluid includes: an apparatus that acquires data including spectra in a time series obtained by irradiating at least part of the body fluid in a flowing state with laser light; and an analyzer apparatus that analyzes analysis target spectrum included in the acquired data based on an analysis reference spectrum that is highly similar to the analysis target spectrum, out of a plurality of reference spectra that primarily reflect one out of a plurality of principal components of the body fluid, and determines the concentration of a target component in the body fluid.

Abstract: An improved near-infrared spectroscopy based handheld tissue oxygenation scanner and method in which the handheld tissue oxygenation scanner is a small device-like an optical mouse-employing a single transmitter-receiver pair, an optical switch, and a plurality of optical fibers that transmit light into tissue under examination and receive light after interacting with that tissue. The integration of a plurality of optical fibers wherein each individual one provides emission/reception of infrared radiation advantageously provides a higher density of tissue interrogation by the infrared radiation thereby providing faster operation and more information in a given time period. Additional features and advantages of our inventive system and method include computer control and the ability to connect to a variety of computing devices via BlueTooth and other communications techniques.

Abstract: A biometric wearable device (e.g. finger ring or smart watch) has optical sensors to measure body oxygenation level, hydration level, glucose level, heart rate, heart rate variability, and/or blood pressure. Light from light emitters is transmitted through body tissue and changes in the light are analyzed. The angles and/or vectors along which the light is transmitted through body tissue can be automatically changed by the device in order to scan different tissue regions and/or different tissue depths.

Abstract: Systems and methods for assessing a flow of fluids suctioned from a patient. The flow of fluids may be divided according to a flow division ratio. An image of a first portion of the fluids may be evaluated to determine an estimated blood component quantity as a representative fraction of the flow of fluids. An intermittent estimate of blood loss may be determined based on the flow division ratio and the estimated blood component quantity, and a total estimate of blood loss updated based on the intermittent estimate. The representative fraction is projected or extended to be an estimated blood component quantity of the second portion of the fluids that bypasses the receptacle. The images may be continuously captured with a camera, and a fluid level of the fluids with a receptable may be continuously monitored. The total estimate of blood loss may be displayed in real-time on a display.

Abstract: The disclosed apparatus, systems and methods relate to the collection of bodily fluids through the use of gravity and microfluidic properties by way of a collector. The collector can make use of microfluidic networks connected to collection sites on the skin of a subject to gather and shuttle blood into a reservoir by a combination of capillary action and gravitational forces. The collected fluid is moved through the microfluidic networks and into the reservoir by a variety of approaches.

Abstract: A blood collection system for determining an accurate blood fill volume in a collection vessel is disclosed herein. The blood collection system includes a flow component and a blood metering device connected to the flow component. The flow component comprises a flow channel having a T-junction. The blood metering device includes a control unit for operating the blood metering device, a barrel configured to align with a neck of a. collection vessel for receiving the neck therewithin. and an adapter including a luer connector at a first end portion thereof for coupling with the control unit and a second end portion thereof for coupling with the barrel. A pressure sensor is disposed in a channel adjacent to and in fluid communication with the T-junction. Methods of determining an accurate blood fill volume in a collection vessel are also disclosed herein.

Abstract: Various collection devices, systems and methods relating to the use of devices with open microfluidic channels disposed within a housing defining a lumen. These devices make use of microneedles passed through apertures to induce fluid flow into microfluidic channel networks for collection and analysis. The device can be actuated via button when placed on the skin of a patient to collect a fluid sample, such as a blood draw.

Abstract: Systems and methods for gesture control are described. In some embodiments, a system for assessing a physiological state of a user. The system may include the wearable device comprising one or more electrodes configured to be disposed adjacent to an external surface of the skin portion. A first timestamp may be determined. The first timestamp may indicate a first time at which a stimulus is presented to the user. A second timestamp indicating a second time at which the biopotential signals indicate an intention by the user to perform a responsive action may be determined. Based at least on the first timestamp and the second timestamp, determine a subject response time for the user. The subject response time may be compared to a baseline response time for the user to generate an assessment of a physiological state of the user.

Abstract: A system for remotely determining the potential presence of depression in a user. The system includes a virtual agent that administers one or more tasks to the user. The user performs the tasks and the performance is captured by a camera. The captured audiovisual data is sent to a server that derives objective metrics which are then applied to a classifying algorithm. If certain metrics meet certain thresholds, the system determines that the user is exhibiting depression symptoms. In embodiments, the system can further determine whether a user has been taking depression medication.

Abstract: In one or more arrangements, a system and method for assessing worker fatigue is presented. In one or more arrangements, the system includes a monitoring system and a wearable device configured to be worn by a worker during a work shift. The wearable device includes one or more sensors. The wearable device is configured to communicate motion data recorded by the wearable device the monitoring system. The monitoring system is configured to perform analytics on the motion data received from the wearable device to assess fatigue of the worker. In one or more arrangements, the monitoring system is configured to predict when a worker will become fatigued in the near future. In one or more arrangements, the monitoring system is configured to initiate one or more actions to mitigate the risk of accident or injury in response to determining a worker is or soon will be fatigued.

Abstract: Embodiments can include a nerve mapping and monitoring system that can include a multi-polar stimulation unit, an electrical connector, an instrument having a grid array, where the grid array can comprise a plurality of electrodes, where each of the plurality of electrodes can be configured to be stimulated by the multi-polar stimulation unit, a recording element, where the recording element can be configured to detect a muscle response elicited by the grid array, and a computer, where the computer can be configured to monitor the muscle response elicited by the grid array such that neural structures can be identified and avoided.

Abstract: An example lead includes a plurality of electrodes configured to sense electrical signals from a patient; one or more light emitting diodes (LEDs); and one or more optical sensors configured to sense optical signals, wherein the LEDs, the optical sensors and the electrodes are respectively aligned in measuring pairs, the measuring pairs including: one of the LEDs or one of the optical sensors, and one of the plurality of electrodes.

Abstract: A method is provided. The method is implemented by a mapping engine stored as program code on a memory and executed by a processor. The method include subdividing an anatomical mesh of a part of an anatomical structure to one or more other meshes of the anatomical structure. The one or more other meshes are more granular than the anatomical mesh. The method includes interpolating local activation time values and velocity values for the one or more other meshes and tracing a path of velocity vectors on the one or more other meshes in accordance with the interpolation of the local activation time values and velocity values. The method also includes projecting the path on the anatomical mesh to provide an enhanced visualization of the anatomical structure.

Abstract: A method for analysis of an ECG input for a subject to determine whether the subject is a pediatric subject or non-pediatric subject, and to classify the subject in one of a plurality of different age groups, comprising: receiving an ECG input for the subject; determining that the subject is a pediatric or non-pediatric subject; upon determining that the subject is a pediatric subject, determining that the subject belongs in one of a plurality of different pediatric age groups; upon determining that the subject is a non-pediatric subject, determining that the subject belongs in one of a plurality of different non-pediatric age groups; and performing an automated analysis of the received ECG input for the subject, wherein the automated analysis is based in part on the determined age group in which the subject belongs.

Abstract: A determination device includes a memory configured to store instructions and a model for receiving an input of data relating to a determination target for each time step and for changing the state thereof for each time step. The determination device further includes a processor configured to execute the instructions to: identify a reference time step as a time step serving as the reference to the changing state of the determination target, and perform determination of the determination target based on the state of the model at a derivative time step from the reference time step.

Abstract: The disclosure relates to a lung function detection method, system and apparatus, and to a computer device and a storage medium. The method comprises: acquiring chest and abdomen surface point cloud data of a subject under test within a preset time period by means of a biological detection sensor; analyzing the chest and abdomen surface point cloud data, and determining lung ventilation change information of the subject under test; and according to the lung ventilation change information, determining a lung function detection result of the subject under test. The biological detection sensor is arranged within a preset range around the subject under test but does not come in contact with the subject under test.

Abstract: Proposed is a prediction method for breakthrough pain of a subject, the method including receiving pain score data collected from a subject for a predetermined time by means of an analysis apparatus, preprocessing the pain score data by means of the analysis apparatus, and inputting the preprocessed pain score data into a deep learning model trained in advance and predicting whether breakthrough pain will be generated in the subject in a point in time in the future on the basis of a prediction value output from the deep learning model by means of the analysis apparatus.

Abstract: Various embodiments of the present subject matter use health-related information to improve the monitoring and treatment provided to remotely managed patient populations by generating patient states to simplify the triaging of patient conditions. In an example, the system can receive from a user via a user interface, criteria related to one or more goals to accomplish while receiving therapy to treat a condition. The system can translate, by at least one hardware processor, the criteria related to the one or more goals to a state-based classification defining a plurality of patient states defined by a plurality of parameters and receive a first set of parameter values. The system can further identify a first patient state from among the plurality of patient states using the first set of parameter values and generate an output including the first patient state.

Abstract: A lens frame includes a lens holding member having one pair of lens housings holding lenses and one pair of temple members, and the temple member includes each front temple part supporting the lens holding member, a rear temple part connected to a rear side of the front temple part, and an angle adjustable connection part that is able to adjust an angle of the front temple part with respect to the rear temple part using a rotation center portion as a center, and the front temple part has a length adjusting mechanism that is able to adjust a length of the front temple part.

Abstract: An applicator for inserting a sensor measuring biometric information into the skin of a user according to the present disclosure, comprises: an applicator body; an insertion unit which is installed in the applicator body and moves a sensor unit from a first position spaced apart from the user's skin to a second position where the sensor is inserted into the user's skin, the sensor unit including the sensor and a sensor unit housing in which the sensor is attached; an operation member which is installed on the applicator body so as to be moved by the user in order to operate the insertion unit; and a moving tab which is installed on the applicator body so as to be moved by the user, and can move from a locking position where the operation of the operation member is restricted to a release position where the restriction of the operation member is released.

Abstract: Certain examples of the disclosure concern an implantable sensor. The implantable sensor includes a sensor assembly configured to connect to a suture. The sensor assembly also includes a substrate and a resonant circuit coupled to the substrate. The resonant circuit is configured to electrically resonate at a resonant frequency when exposed to a first electromagnetic field and to emit a second remotely detectable electromagnetic field. The substrate is configured to deform in response to a tensile force applied by the suture and to change a resonant parameter of the resonant circuit in response to the deformation.

Abstract: A measuring arrangement for measuring movements of a patient positioned recumbently on a patient table includes the patient table and a securing strap for locally securing the patient on the patient table. The securing strap is flexible and has at least one first fastener that co-operates with a second fastener of the patient table for fastening the securing strap. The measuring arrangement includes a strain sensor provided as part of the securing strap and/or motion-coupled thereto, and a control device for determining motion information describing the movements of the patient from sensor data of the strain sensor.

Abstract: An apparatus and method for diagnosing developmental disorder using an artificial neural network are disclosed. An apparatus for diagnosing developmental disorders according to one exemplary embodiment includes a communication unit that performs communication with one or more user terminals and a control unit connected to the communication unit, in which the control unit receives at least one of image data and voice data for an analysis target from the user terminal and performs a first developmental disorder diagnosis through one or more artificial neural networks learned to perform a developmental disorder diagnosis, receives questionnaire response data from the user terminal and performs a second developmental disorder diagnosis according to predetermined standard, and generates developmental disorder diagnosis data for the analysis target based on the first developmental disorder diagnosis and the second developmental disorder diagnosis.

Abstract: An interface receives time series data including multiple observed values of an observed parameter that are acquired at different time points for obtaining physiological information of a subject. A processor inputs the time series data into a prediction model to perform prediction of one or more unobserved values of the observed parameter. The processor causes an output device to visualize a range within which the one or more unobserved values may fall. The range is changed in accordance with a time interval between the different time points.

Abstract: The invention relates to a method for determining a score value (S) for the likelihood of the presence of a pulmonary hypertension (PH) in a person (P).

Abstract: Disclosed is a method for training a sleep-related event detection model, a corresponding method of sleep-related event detection as well as a corresponding computer program, data structure and data processing device. The training method may comprise a step of providing, as input, a set of training data samples. Each training data sample may comprise one or more cardiac signals representative of a cardiac parameter of a subject, one or more audio recording signals representative of an environmental sound of the subject and at least a first and second sleep-related event of the subject associated with the one or more cardiac and audio recording signals of the subject. The method may comprise a step of training the sleep-related event detection model using the input.

Abstract: A motion state monitoring system includes: a plurality of sensors attached to respective body parts of a plurality of respective subjects; and a plurality of motion state monitoring apparatuses. Each of the plurality of motion state monitoring apparatuses comprises: an icon display unit configured to display a plurality of sensor icons corresponding to the plurality of respective sensors; a display control unit configured to cause the icon display unit to display a sensor a distance of which from the motion state monitoring apparatus is within a predetermined distance among the plurality of sensors; a reception unit configured to receive a setting operation on a sensor icon displayed on the icon display unit; and a process unit configured to make, in accordance with the setting operation, the sensor corresponding to the sensor icon correspond to the body part of the subject to which the sensor is to be attached.

Abstract: An imaging system includes a first portion and a second portion that translates and/or rotates with respect to the first portion. A first locking mechanism may prevent the second portion from translating with respect to the first portion, such as during transport of the system. A second locking mechanism may prevent the second portion from rotating with respect to the first portion, such as during transport and/or during an imaging scan. Further embodiments include a cable management system between the first and second portions, a spherically-shaped surface of a support gimbal and a user interface device for an imaging system.

Abstract: An imaging system includes a gantry and a compression system coupled to the gantry and rotatable relative to the gantry. The compression system includes a compression paddle, a support platform, and an x-ray receptor disposed below the support platform. An x-ray tube head is coupled to the gantry and includes an x-ray source and a light source. The x-ray tube head is independently rotatable relative to the gantry and the compression system. The light source is configured to generate at least a first light type and a different second light type directed towards the support platform. The second light type being mapped to an x-ray field of the x-ray source, and the generated second light type is based on a tilt angle of the x-ray tube head relative to the support platform and a compression force of the compression paddle.

Abstract: A shielding system for reducing scatter radiation during x-ray imaging procedures may include a drawer feature to temporarily move a shield portion laterally outward from a medical procedure table. A shielding system for reducing scatter radiation during x-ray imaging procedures may include a curtain feature to temporarily move a shield portion to enable a range of positioning of an x-ray source around a medical procedure table; in some embodiments, the shield portion may include wound wire stays to flexibly and/or temporarily conform to movement of equipment near the medical procedure table. A shielding system for reducing scatter radiation during x-ray imaging procedures may include a rail extension feature to enable mounting or flexible positioning of components near a medical procedure table; in some aspects, the rail extension may include an undercut region that facilitates placement of jam boards and the like under a patient during a procedure.

Abstract: A photon-counting imaging system is provided. The system includes a photon-counting detector and processing circuitry. The detector acquires, from an imaging object, projection data for a plurality of projection views. The detector has a plurality of detector pixels that are arranged in both a channel direction and a segment direction on a surface of the detector. The processing circuitry obtains the projection data acquired by the detector. The projection data includes first and second projection data. The processing circuitry processes, with a first energy bin setting, the first projection data, the first energy bin setting having m energy bins, and processes, with a second energy bin setting, the second projection data, the second energy bin setting having n energy bins, where n>m. The processing circuitry generates, based on the processed first projection data and the processed second projection data, a material decomposition image of the imaging object.

Abstract: The present disclosure provides a gantry for an X-ray system. The gantry may include a base section, a lifting section, and a swing section. The base section may be configured to move. A first end of the lifting section may be connected to the base section. A first end of the swing section may be rotatably connected to a second end of the lifting section. A radiation assembly may be disposed on a second end of the swing section.