Abstract: Disclosed herein is a medical system (100, 300, 500) comprising: a memory (110) storing machine executable instructions, at least one set of predetermined coordinates (124), and a position identifying algorithm (122). The position identifying algorithm is configured for outputting a set of current coordinates (128) for each of the at least one set of predetermined coordinates in response to receiving a current image descriptive of an object (306, 310). The execution of machine executable instructions (120) causes a computational system (104) to repeatedly receive (200) a current image (126) from a camera system (304).

Abstract: The present invention relates to a patient positioning adaptive guidance system (10), comprising: a medical image acquisition unit (20); at least one communication unit (30); at least one camera (40); and a processing unit (50). The medical image acquisition unit is configured to acquire a medical image of a patient. The processing unit is configured to control the at least one communication unit to provide body positioning information to the patient prior to acquisition of the medical image. One or more cameras of the at least one camera is configured to acquire position and movement image data of the patient associated with the provision of the body position information to the patient.

Abstract: Some embodiments are directed to a control system (400) for an augmented reality device (410). The control system may determine a comparison-situation, at least from a received video stream, in which the user is selecting a physical object matching a reference object. Augmented reality content may be generated that indicate reference content.

Abstract: The described embodiments relate to a sensor patch that can be temporarily removed and re-applied in the same location using a side element of the sensor patch. The side element can be folded onto the sensor patch when the sensor patch is adhered to an object such as an appendage of a person. The side element can be unfolded and adhered to the appendage in order to preserve the placement of the sensor patch on the appendage. In this way, maintenance such as cleaning can be performed on the area where the sensor patch is located without having to dispose of the sensor patch. Once maintenance is completed, the side element can be folded back onto a surface of the sensor patch until maintenance is to be performed again.

Abstract: Disclosed herein is a medical system (100, 300, 500) comprising: a memory (110) storing machine executable instructions, at least one set of predetermined coordinates (124), and a position identifying algorithm (122). The position identifying algorithm is configured for outputting a set of current coordinates (128) for each of the at least one set of predetermined coordinates in response to receiving a current image descriptive of an object (306, 310). The execution of machine executable instructions (120) causes a computational system (104) to repeatedly receive (200) a current image (126) from a camera system (304).

Abstract: The invention provides a method for the production of a 3D printed object (100), wherein the method comprises (i) a 3D printing stage, the 3D printing stage comprising 3D printing a 3D printable material (110) to provide the 3D printed object (100) of printed material (120), wherein the 3D printing stage further comprises forming during 3D printing a channel (200) in the 3D printed object (100) under construction, wherein the method further comprises (ii) a filling stage comprising filling the channel (200) with a curable material (140) and curing the curable material (140) to provide the channel (200) with cured material (150), wherein the cured material (150) has a lower stiffness than the surrounding printed material (120).

Abstract: There is provided an apparatus (100) for implementing a clinical protocol. The apparatus (100) comprises one or more processors (102) configured to detect that a clinical protocol is to be implemented and identify which of a plurality of devices are required to implement the clinical protocol and one or more actions to perform in connection with the identified ones of the devices to implement the clinical protocol. The one or more processors (102) are configured to control a user interface (104) to output one or more notifications on the manner in which a user is to interact with one or more of the identified ones of the devices and/or control one or more of the identified ones of the devices to cause the one or more identified actions to be performed in connection with the identified ones of the devices to implement the clinical protocol.

Abstract: The invention provides a 3D printing device (500) comprising a printer nozzle (502) for depositing a material on a support structure (550) for the formation of a 3D object (10), wherein the printer nozzle (502) and the support structure (550) are arranged to be translated relative to each other with a translation speed in a translation direction (52, 62), and a vibration actuator arranged for providing a vibrating motion (50, 60) of at least a first part of the support structure (550) relative to the printer nozzle (502) in a direction different from the translation direction (52, 62).

Abstract: According to an aspect, there is provided a method of sending a message to a subject, the method comprising obtaining (30; 502) measurements of one or more physiological characteristics of a subject over time; determining (32; 504) a psychological state of the subject for a plurality of time periods from the measurements; and in the event that it is determined that the subject is in a psychological state of interest in a first time period, sending (34; 514) a message to the subject in a time period subsequent to the first time period in which it is determined that the subject is not in the psychological state of interest.

Abstract: A steerable multi-plane ultrasound imaging system (MPUIS) for steering a plurality of intersecting image planes (PL1 . . . n) of a beamforming ultrasound imaging probe (BUIP) based on ultrasound signals transmitted between the beamforming ultrasound imaging probe (BUIP) and an ultrasound transducer (S) disposed within a field of view (FOV) of the probe (BUIP). An ultrasound tracking system (UTS) causes the beamforming ultrasound imaging probe (BUIP) to adjust an orientation of the first image plane (PL1) such that a first image plane passes through a position (POS) of the ultrasound transducer (S) by maximizing a magnitude of ultrasound signals transmitted between the beamforming ultrasound imaging probe (BUIP) and the ultrasound transducer (S). An orientation of a second image plane (PL2) is adjusted such that an intersection (AZ) between the first image plane and the second image plane passes through the position of the ultrasound transducer (S).

Abstract: The described embodiments relate to a self-regulating patch for taking biopotential measurements and balancing accurate measurements and user comfort. The self-regulating patch including: a heating element operable to generate heat that causes formation of sweat at the skin surface; a biopotential sensor; an exterior surface constructed of a moisture wicking material enveloping the heating element; and a logic to concurrently activate the biopotential sensor and transition the self-regulating patch between a plurality of modes, including a comfort mode and an accuracy mode, where in the comfort mode the heating element is inactive and in the accuracy mode the heating element is active.

Abstract: Various embodiments described herein relate to a method, apparatus, and computer-readable medium including one or more of the following: displaying a first attribute display representative of a first attribute of a data set, the first attribute display comprising a first input element for receiving an indication of a first attribute value; displaying a second attribute display representative of a second attribute of the data set, the second attribute display comprising a second input element for receiving an indication of a second attribute value; receiving an indication of a first attribute value for the first attribute of a data set; and after receiving the indication of the first attribute value, altering the second input element of the second attribute display to reflect a portion of the data set matching a query including the first attribute value.

Abstract: There is provided a system (100) for detecting paralysis, weakness or numbness. A processor (102) acquires data obtained by a sensor (106) of a personal care device (104) used by a subject on a first part of their body and compares this data to reference data obtained by the sensor used by the subject on a second part of their body to determine whether the acquired data comprises an abnormality. The acquired data is indicative of a manner in which the subject used the device on the first part and/or a physiological property of that part. The reference data is indicative of a manner in which the subject used the device on the second part and/or a physiological property of that part. The processor detects paralysis, weakness or numbness in the first or a third part of the body of the subject when the acquired data comprises an abnormality.

Abstract: A positioning system (10) for positioning a patient (101) for diagnostic imaging is provided. The system comprises a sensor arrangement (12) with at least one sensor (14, 16) configured to provide a sensor signal indicative of at least one body parameter of the patient (101), a controller (18) configured to determine a value of the at least one body parameter based on the sensor signal of the at least one sensor (14, 16), and at least one actuatable support (20) configured to move at least one of an arm (105) and a leg (107) of the patient with respect to a torso of the patient. Therein, the controller (18) is configured to actuate the at least one actuatable support (20) depending on the determined value of the at least one body parameter to move at least one of the arm and the leg relative to the torso of the patient, such that the patient is guided to a posture for diagnostic imaging.

Abstract: Techniques are described for detecting erythema caused by wearable devices. In various embodiments, a wearable device may include light source(s) to emit light at multiple wavelengths; light sensor(s) to receive light reflected from tissue of an individual that wears the wearable device; and logic configured to: operate the light source(s) to emit light at multiple wavelengths; receive a signal generated by the light sensor(s), wherein the signal is generated by the light sensor(s) in response to detection of light reflected from the tissue; analyze the signal to determine a first metric from a first wavelength of the light reflected from a first depth of the tissue and a second metric from a second wavelength of the light reflected from a second depth of the tissue; identify a correlation between the first and second metrics; and provide output indicative of tissue erythema based on the correlation.

Abstract: The described embodiments relate to a self-regulating patch for taking biopotential measurements and balancing accurate measurements and user comfort. The self-regulating patch including: a heating element operable to generate heat that causes formation of sweat at the skin surface; a biopotential sensor; an exterior surface constructed of a moisture wicking material enveloping the heating element; and a logic to concurrently activate the biopotential sensor and transition the self-regulating patch between a plurality of modes, including a comfort mode and an accuracy mode, where in the comfort mode the heating element is inactive and in the accuracy mode the heating element is active.

Abstract: According to an aspect, there is provided a method of sending a message to a subject, the method comprising obtaining (30; 502) measurements of one or more physiological characteristics of a subject over time; determining (32; 504) a psychological state of the subject for a plurality of time periods from the measurements; and in the event that it is determined that the subject is in a psychological state of interest in a first time period, sending (34; 514) a message to the subject in a time period subsequent to the first time period in which it is determined that the subject is not in the psychological state of interest.

Abstract: The invention provides a method for printing a 3D printed object (100), the 3D printed object (100) comprising a first type of printed material (1120) having electrically conductive properties and a second type of printed material (2120) having electrically insulating properties, wherein the method comprises: (I) providing printable material (110), wherein the printable material (110) has electrically insulating properties and wherein the printable material (110) is convertible by heat to a material (1110,1120) having electrically conductive properties; (II) printing with a 3D printer (500) said printable material (110) to generate printed material (120); and (III) subjecting to heat part of the printed material (120) after deposition; to provide said 3D printed object (100).

Abstract: Computer implemented methods and systems of flagging a portion of a recording of a patient interaction with a clinical professional for review. A method comprises acquiring a recording of a patient interaction with a clinical professional, acquiring physical data relating to a physical state of the patient during the recording, and based on the physical data, flagging a portion of the recording for review.

Abstract: A wearable system is for mounting against the skin of a subject. It comprises a flexible circuit board sandwiched (e.g. laminated) between a top layer and a base layer. The flexible circuit board has a meander section between end pads. The base layer and the top layer are bonded together by a bonding layer which has a meander opening around the meander section. This means the stretchability of the meander section is not inhibited by the lamination process.