Resumen de: US20260115377A1
0000 Medication container for use in infusion therapy and an infusion system incorporating such a medication container. Medication containers often flexible medication bags. The a medication container has a wall, which encloses an interior. A liquid to be administered to a patient can be held in this interior. The medication container also comprises at least one fluid coupling for connecting a fluid line for taking liquid from the medication container. The medication container comprises a first transmission device, wherein the first transmission device is configured for data communication with an information carrier applied on an outer side of a wall of the medication container.
Resumen de: US20260114750A1
Methods and processes for activity tracking and health analytics applications can include a smart ring device comprising embedded sensors configured to collect user data. The collected data can be used to provide three-dimensional finger motion tracking analysis. In addition, or alternatively, the collected data can be used to provide blood alcohol concentration measurement and analysis.
Resumen de: DE102024131256A1
Die vorliegende Erfindung liegt im technischen Gebiet der additiven Fertigung und stellt ein kontinuierliches Verfahren zum Herstellen von flächigen, porösen Hydrogelen und Strukturen bereit. Ebenfalls stellt die vorliegende Erfindung eine Vorrichtung zur kontinuierlichen Herstellung von Hydrogelen bereit.
Resumen de: US20260116112A1
The present disclosure provides a method for creating a label for labeling an intravenous infusion line. Further, the method may include receiving an information associated with one or more intravenous infusion lines from input devices, analyzing the information, determining label content of labels associated with the intravenous infusion lines, determining label content formats of the label content, generating a label information for the labels based on the label content and the label content formats, and printing the label information on label sheets using a printing device based on the label information. Further, the printing device comprises a thermal printer configured for selectively inducing a chromatic transition in a thermochromic composition associated with the label sheets. Further, the printing of the label information on the label sheets is further based on the selective induction. Further, the printing of the label information creates the labels for the intravenous infusion lines.
Resumen de: US20260120843A1
0000 A wearable device or system for monitoring food consumption can include a wrist-worn or finger-worn device which is worn by a person, a motion sensor on the wrist-worn or finger-worn device, eyewear which is worn by the person, and a camera on the eyewear which is activated to record food images when analysis of data from the motion sensor detects that the person is eating. This device can be used alone or as part of a closed-loop glucose level management system.
Resumen de: US20260115045A1
Systems and methods for performing laser cataract surgery, for using a biometric system to determine a material property of a structure of the eye, laser pulses in a laser shot pattern having different powers. A therapeutic laser, and laser delivery system having the capability to vary the power of the laser beam.
Resumen de: US20260115998A1
Stereolithography (SLA)-based 3D printing enables high-resolution microfabrication but faces challenges in multi-material integration and adaptive Z-layer control due to reliance on vats and mechanical stages. We introduce “In-situ 3D Polymerization” (IS-3DP), a novel method leveraging multiphasic laminar flow in a microfluidic channel to fabricate three-dimensional microstructures. By combining in-situ polymerization with an aqueous two-phase system (ATPS), IS-3DP dynamically controls layer thickness through flow rate adjustments, achieving resolutions below 200 μm. This approach eliminates vats, reducing material consumption by an order of magnitude, and enables rapid multi-material switching without complex printer modifications. Compatible with various light sources and photopolymers, IS-3DP offers versatile applications in bioprinting and microdevice manufacturing, with demonstrated layer-by-layer printing of 3D structures in a microfluidic environment.
Resumen de: WO2026089594A1
The present device pertains to the field of medicine, and more particularly to orthopaedic dentistry, and can be used for ensuring precision in the tooth preparation step during the installation of prostheses. The claimed device comprises a 1:5 red band micromotor or turbine handpiece, a coupling, an abrasive tool, two levers, a template, a pivoting assembly, a flange, a bushing, a bracket, and a shaft, wherein the flange is secured in the template, which is printed on a 3D printer, and the pivoting assembly is comprised of linear slide bearings and a guide shaft, wherein the shaft and the bracket are parallel to one another, and the handpiece is fastened by the coupling such that the axis of the abrasive tool is parallel to the axis of the shaft. The device provides a broader range of use in the given field of orthopaedic dentistry than the existing prior art.
Resumen de: WO2026085571A1
A computer-implemented method for determining a delivery location on a patient for delivering stimulation, the method comprising: generating a three-dimensional model of at least part of the patient from medical image data of the patient, the three-dimensional model comprising an external model and an internal model within the external model; identifying a stimulation site on the internal model for receiving the stimulation; determining a delivery region of the external model by projecting the stimulation site to the external model, wherein any point in the delivery region has a corresponding internal model intersection site based on a substantially perpendicular projection from the respective point in the delivery region; and optimising a distance between an internal model intersection site and the stimulation site to determine the delivery location.
Resumen de: WO2026088193A1
An end effector for use with a robotic arm is configured to attach to a tool changer on the robotic arm within an environment. The end effector includes one or more image sensors and an electrical connector configured to output image data from the one or more image sensors to the tool changer.
Resumen de: WO2026087490A1
The invention relates to biocompatible electrically conducting and preferably optically transparent hydrogels, to a 3D printing method of forming such biocompatible electrically conducting and/or optically transparent hydrogels, to a method for developing functional cell networks from human induced pluripotent stem cells, to a 3D bioelectric platform comprising said 3D-printed biocompatible electrically conducting and/or optically transparent hydrogels and a method of creating the same, and to the use of said hydrogels.
Resumen de: US20260115101A1
0000 A method of tracking medications to be administered includes assigning, in a computing device, a medication to a slot in a cart insert for a medication cart. Medication tracking data is recorded in a database for the location of that medication and the identity of an individual to whom the medication is to be administered. The cart insert with the medications packed therein is loaded into a medication cart. A computing device retrieves the medication tracking data from the database, and upon selection in a computing device of the individual and medication to be administered, the computing device identifies the location of the medication in the cart by illuminating lights on the front of the drawer of the cart at which the medication is located, and lights adjacent a row and a column of slots at the intersection of which is found the slot containing the selected medication.
Resumen de: WO2026090254A1
Systems, methods, and compositions directed to the engineered incorporation of a tidemark-mimetic into a 3D printed osteochondral (OC)-mimetic hydrogel scaffold configured to recapitulate a mineralized barrier that restricts transport of calcifying ions into the articular (hyaline) cartilage layer, and/or an engineered cement line-mimetic configured to prevent cellular migration from the subchondral bone layer into the cartilage layers.
Resumen de: US20260115355A1
0000 Provided are ultrafine-fiber or microfiber scaffolds including a plurality of wall fibers and a plurality of reinforcing fibers, each reinforcing fiber including at least two (such as at least four) anchor segments and at least one (such as at least three) bridge segment, wherein: the wall fibers and the anchor segments are substantially aligned forming a plurality of walls, and the bridge segments each extend across the space between any two adjacent walls. Further provided are methods of producing an ultrafine-fiber or microfiber scaffold by electrohydrodynamic printing (EHD), including jetting along a first straight jetting path that is offset relative to the wall fiber direction at angle of less than 90°. Also provided are methods of culturing cells, forming tissues, and treating an injury using the disclosed scaffolds and compositions.
Resumen de: US20260114735A1
0000 A measurement device can be used by a patient or user to scan a tissue site to generate a thermal image of the scanned tissue site. The device can measure and collect temperature data and position data using one or more thermal and position sensors. The data can be used to generate a thermal image of the scanned tissue. The thermal image can be used to monitor various tissue sites and determine location and severity of inflammation. The thermal field scanner can help patients in avoiding formation of ulcers and other dangerous medical conditions.
Resumen de: US20260114749A1
0000 A method of making infused bone particles employs the following steps: cutting or shaving whole bone into bone particles, washing the bone particles, demineralizing or decalcifying at least partially the whole bone or bone particles and infusing the bone particles with a supernatant of biologic material or a polyampholyte cryoprotectant or a combination of both to create infused bone particles. The step of infusing includes exposing the bone particles to a negative pressure or vacuum to draw the supernatant and/or the polyampholyte cryoprotectant into the bone particles, or alternatively, exposing the demineralized whole bone to a positive pressure to drive the supernatant and/or the polyampholyte cryoprotectant into the bone. The resultant method creates an infused bone grafting composition having bone particles taken from whole bone, demineralized or decalcified at least partially and infused with one or more of a supernatant of biologic material or a polyampholyte cryoprotectant or both.
Resumen de: US20260114727A1
A system includes system housing, an eccentric radiation source, and a radiation sensor. The radiation produced by the eccentric radiation source can be collected by the radiation sensor to generate images of retinas for a patient. The system also includes a vision screening device connected with the eccentric radiation source and the radiation sensor via the system house that can control and synchronize actions for the eccentric radiation source and the radiation sensor. The vision screening device further analyzes the images generated by the radiation sensor via neural network algorithms to determine spherical error slopes, refractive errors, and recommendations for the patient.
Resumen de: US20260122057A1
0000 A system includes a key service, that is configured to authenticate requests from an external manufacturing system (“EMS”), receive a request for generating a keyset, generate the keyset, send the keyset to the EMS, and send the keyset to a persistent cloud storage system, wherein an external cloud system accesses the keyset for use in secure communication with a hardware device.
Resumen de: WO2026088027A1
A system (100) for health diagnosis using breath of user and lifestyle assessment is disclosed The system includes a breath analyzer device (110) that includes a breath chamber (120) to receive exhaled breath and detect concentration level of acetone, hydrogen, ethanol, hydrogen, ammonia, carbon monoxide, hydrogen sulphide, 5 lung capacity, hydrogen, methane, ammonia and hydrogen sulphide. The plurality of sensors (130) captures a photoplethysmography signal. A receiving module (160) receives data and the photoplethysmography signal. A disorder score generation module (170) analyses the data to generate a diabetic score, liver disorder score, respiratory disorder score, digestive. A nutrient score module (180) calculates a 10 nutrient score. A lifestyle score module (190) calculates a lifestyle score. A display module (200) displays diabetic score, liver disorder score, respiratory disorder score, digestive disorder score, kidney disorder score, nutrition score, lifestyle score, and the plurality of health parameters via a user interface.
Resumen de: WO2026090289A1
A platelet collection device and method of using machine learning to predict a platelet yield of a source of biological fluid is described. The method includes retrieving a corpus of platelet collection data comprising donor parameters and measured platelet yields for a plurality of platelet collections. The method includes training a machine learning algorithm using the corpus of platelet collection data, the machine learning algorithm being trained to predict the platelet yield based on input donor parameters. The method includes using the machine learning algorithm to receive a set of input donor parameters for the person and predict the platelet yield. The method includes processing the biological fluid to collect a platelet product.
Resumen de: US20260114972A1
Systems and methods for evaluating a patient's intraoral health are provided. In some embodiments, a method includes receiving scan data of a patient's intraoral cavity; receiving additional data for the patient, the additional data being different from the scan data; determining a first prediction of a condition of the intraoral cavity based on the scan data; determining a second prediction of a condition of the intraoral cavity based on the additional data; generating a predicted condition for the intraoral cavity based on a combination of the first and second predictions; and outputting an indication of the predicted condition on a display.
Resumen de: US20260114815A1
0000 Subject measurement systems can generate indications of neurological state, disease, dysfunction, or injury using a machine learning model. The machine learning model can include at least one encoding model and a sequential model pre-trained to perform language processing tasks. The machine learning model can further include a classifier configured to output classifications. The at least one encoding model, sequential model, and at least one decoding model can be jointly trained to predict timeseries output, thereby adapting the pre-trained sequential model for use with neurologically relevant input domains, such as medical images, EEG data, evoked response data, speech data, or the like. The at least one encoding model, sequential model, and classifier can be jointly trained to output indications of neurological state, disease, dysfunction, or injury. A subject measurement system can then generate such indications using patient data and the at least one encoding model, sequential model, and classifier.
Resumen de: US20260120831A1
A computer-implemented method includes obtaining a first mask of primary tissue of interest segmented from image data of a subject, obtaining a second set of masks of other tissue indicative of the health state of the primary tissue of interest from the image data of the subject, obtaining a third set of masks of elements that are signs of disease of the primary tissue of interest from the image data of the subject, and generating a schematic representation of the health state of the primary tissue of interest of the subject with the image data, the first mask, the second set of masks and the third set of masks. In one instance, a health state of the primary tissue of interest is under evaluation and the schematic representation provides a summary of health related information about the health state of the primary tissue of interest from the image data.
Resumen de: US20260114795A1
Presented herein are systems and methods of identifying locations to place stereo-electroencephalography (SEEG) electrodes on brain tissues of subjects for detection of epileptogenic zones (EZs). A computing system may receive, for a subject at risk of or diagnosed with epilepsy, a dataset comprising a neuroimage of the brain of the subject and a metric indicating a degree of neuropsychological function of the subject. The computing system may apply the dataset to a machine learning (ML) model. The computing system may generate a plurality of coordinates for a corresponding plurality of locations along a brain tissue of the subject, each of the plurality of coordinates identifying a plurality of locations at which to place a plurality of SEEG electrodes on the brain tissue to detect an EZ within the subject.
Nº publicación: GB2701355A 29/04/2026
Solicitante:
RGK WHEELCHAIRS LTD [GB]
RGK Wheelchairs Ltd.
Resumen de: GB2701355A
Brake assembly 80 for a racing wheelchair, comprising a brake lever 83 for actuating a brake cable (86, Fig. 6), wherein the brake lever is a 3D printed glass filled nylon unit, or a 3D printed unit of up to 30% glass filled nylon. The brake lever may be adapted to be pivotally mounted between mounting plates 81 provided by a steering arm 50 that is 3D printed of Aluminium, that is either ALSI10mg or the steering arm has a triangular cross-section with smoothed edges. The brake assembly may have a spring mount pin (85, Fig 5a) for mounting between the mounting plates and a spring 84 engaging the brake lever. The brake cable may extend from the brake lever and through the steering arm. Also disclosed is the brake assembly integrated into a steering arm, which may have steering means 61, e.g. wings. The steering arm may have a frame (55, Fig. 4j) for enforcement with brake troughs or openings (56c, Fig 4j) for the brake cable. Figure 2