mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for determining patient-specific blood flow characteristics, the method comprising: acquiring, for each of a plurality of individuals, a geometric model and blood flow characteristics of at least part of the individual's vascular system, and one or more physiological parameters of the individual; executing a machine learning algorithm on the geometric model, the blood flow characteristics and the physiological parameters for each of the plurality of individuals; identifying, using the machine learning algorithm, features predictive of blood flow characteristics corresponding to a plurality of points in the geometric models; acquiring, for a patient, a geometric model of at least part of the patient's vascular system; and using the identified features to determine a blood flow characteristic of the patient for at least one point in the patient's geometric model; wherein executing the machine learning algorithm comprises: for a plurality of points in the geometric model for each of the plurality of individuals, creating a feature vector of the points and the physiological parameters; associating the feature vector for each of the plurality of individuals with the blood flow characteristics of the corresponding individual; characterized by training the machine learning algorithm to predict blood flow characteristics at various points based on the associated feature vectors. acquiring, for each of a plurality of individuals, a geometric model and blood flow characteristics of at least part of the individual's vascular system, and one or more physiological parameters of the individual; executing a machine learning algorithm on the geometric model, the blood flow characteristics and the physiological parameters for each of the plurality of individuals; identifying, using the machine learning algorithm, features predictive of blood flow characteristics corresponding to a plurality of points in the geometric models; acquiring, for a patient, a geometric model of at least part of the patient's vascular system; and using the identified features to determine a blood flow characteristic of the patient for at least one point in the patient's geometric model; wherein executing the machine learning algorithm comprises: for a plurality of points in the geometric model for each of the plurality of individuals, creating a feature vector of the points and the physiological parameters; associating the feature vector for each of the plurality of individuals with the blood flow characteristics of the corresponding individual; characterized by training the machine learning algorithm to predict blood flow characteristics at various points based on the associated feature vectors. for a plurality of points in the geometric model for each of the plurality of individuals, creating a feature vector of the points and the physiological parameters; associating the feature vector for each of the plurality of individuals with the blood flow characteristics of the corresponding individual; characterized by training the machine learning algorithm to predict blood flow characteristics at various points based on the associated feature vectors.
An apparatus, comprising: an additively manufactured first node including a first surface ; an additively manufactured second node including a second surface ; a tube ; an interconnect connecting the tube to the first node and the second node , wherein the interconnect comprises a base and a shaft extending from the base ; and a spacer structure arranged between and entirely separating three or more of the first node , the second node , the tube , and the interconnect . an additively manufactured first node including a first surface ; an additively manufactured second node including a second surface ; a tube ; an interconnect connecting the tube to the first node and the second node , wherein the interconnect comprises a base and a shaft extending from the base ; and a spacer structure arranged between and entirely separating three or more of the first node , the second node , the tube , and the interconnect .
Sanitary water outlet fitting, comprising - a fitting base body subdivided into an inlet section and an outlet section adjoining thereto with an open top side providing a maintenance opening , - a valve unit accommodated in the fitting base body and accessible via the maintenance opening and/or an insert element accommodated in the fitting base body and accessible via the maintenance opening including a particle screen and/or a flow regulator , and - a cover closing the open top side of the outlet section and detachably fixed to the outlet section , - wherein the cover comprises a support plate attached to the outlet section by a detachable connecting structure , and a cover plate attached to a top side of the support plate , characterized by - a circumferential sealing on an underside of the support plate , wherein the sealing has a spacer section to space the cover axially from the fitting base body, and/or wherein the detachable connecting structure includes a snap coupling between the sealing and the fitting base body , wherein the snap coupling comprises at least one snap bead provided on the sealing and at least one snap recess on the fitting base body . - a fitting base body subdivided into an inlet section and an outlet section adjoining thereto with an open top side providing a maintenance opening , - a valve unit accommodated in the fitting base body and accessible via the maintenance opening and/or an insert element accommodated in the fitting base body and accessible via the maintenance opening including a particle screen and/or a flow regulator , and - a cover closing the open top side of the outlet section and detachably fixed to the outlet section , - wherein the cover comprises a support plate attached to the outlet section by a detachable connecting structure , and a cover plate attached to a top side of the support plate , characterized by - a circumferential sealing on an underside of the support plate , wherein the sealing has a spacer section to space the cover axially from the fitting base body, and/or wherein the detachable connecting structure includes a snap coupling between the sealing and the fitting base body , wherein the snap coupling comprises at least one snap bead provided on the sealing and at least one snap recess on the fitting base body .
Large roller bearing having at least two bearing rings that can be rotated with respect to one another, an actuating drive for adjusting the rotational position of the two bearing rings, at least one annular groove cylinder that is formed in or at one of the bearing rings and is interrupted at least once at the periphery and is provided at both sides of the interruption with a feed for hydraulic fluid, and at least one piston that is displaceably received in the annular groove cylinder and is drive-wise connected to the other one of the two bearing rings via a driving disk running around at least in the sealing gap of the annular groove cylinder , wherein the driving disk and/or the connection of the driving disk to the bearing ring to be taken along is formed in the peripheral direction as substantially free of play and movable and/or yielding, in particular subject to play, in the axial and radial directions.
An illumination device which is provided with a dish-shaped accommodating body , a plurality of light source substrates on each of which a light source is mounted on one face, and which are aligned on an inner face of a base wall of the accommodating body , a reflecting sheet which covers the one face, and an inner face of the accommodating body , and reflects light, and a power supply unit , the illumination device comprising: a connector which is provided on the one face; a power feeding member which is formed of a flexible printed board, disposed between the base wall and the reflecting sheet , and feeds power from the power supply unit to the light source substrates ; and a light source connecting portion which is provided in the power feeding member , and is electrically connected to the connector , wherein a through-hole is provided on the base wall , the power feeding member is provided with a power supply connecting portion facing the through-hole , the power supply connecting portion includes a connector , and the power supply unit is disposed on an outer face of the base wall , and includes a connector facing the through-hole which is electrically connected to the connector of the power supply connecting portion within the through-hole . a connector which is provided on the one face; a power feeding member which is formed of a flexible printed board, disposed between the base wall and the reflecting sheet , and feeds power from the power supply unit to the light source substrates ; and a light source connecting portion which is provided in the power feeding member , and is electrically connected to the connector , wherein a through-hole is provided on the base wall , the power feeding member is provided with a power supply connecting portion facing the through-hole , the power supply connecting portion includes a connector , and the power supply unit is disposed on an outer face of the base wall , and includes a connector facing the through-hole which is electrically connected to the connector of the power supply connecting portion within the through-hole .
A vertical baler for compacting waste such as e.g. cardboard or plastic, the baler comprising: - a compartment for containing the waste to be compacted, the compartment comprising interior sides ; - an opening to the compartment ; - a ram arrangement comprising a press plate which is configured for moving vertically inside the compartment for compacting the waste; - a door for providing access to the compartment; - a bale ejector ; - an activation member exterior to the compartment; - a grabbing arrangement on one or more of the interior sides of the compartment, and - a triggering arrangement ; wherein by activation of the triggering arrangement , the activation member is configured for displacing the grabbing arrangement from an inactivated position to a grabbing position extending partly into the compartment; wherein the grabbing arrangement in the grabbing position is vertically displaceable in the compartment by means of the ram arrangement ; wherein the grabbing arrangement is connected to the bale ejector such that a vertical movement of the grabbing arrangement is configured to provide an activation of the bale ejector thereby ejecting a bale from the vertical baler , characterized in that a flexible cable connects the triggering arrangement and the activation member , wherein the flexible cable is a Bowden type cable. - a compartment for containing the waste to be compacted, the compartment comprising interior sides ; - an opening to the compartment ; - a ram arrangement comprising a press plate which is configured for moving vertically inside the compartment for compacting the waste; - a door for providing access to the compartment; - a bale ejector ; - an activation member exterior to the compartment; - a grabbing arrangement on one or more of the interior sides of the compartment, and - a triggering arrangement ;
A printing device configured for performing a print process of a viscous fluid on a printing target (S) using a screen mask (M), the printing device comprising: a cleaning section having a cleaning head configured to contact a cleaning member with the screen mask (M) to perform a cleaning process on the screen mask (M); a moving section connectable and disconnectable to the cleaning section to move the cleaning section between a cleaning area and a standby area; a door member configured to open and close an opening portion through which the cleaning member passes when the cleaning member is moved from the standby area to an outside of the printing device ; and a control section , characterized in that the door member is lockable in a closed state, and the control section is configured to unlock the door member in a state where the moving section and the cleaning section are disconnected from each other and the cleaning section is located in the standby area. a cleaning section having a cleaning head configured to contact a cleaning member with the screen mask (M) to perform a cleaning process on the screen mask (M); a moving section connectable and disconnectable to the cleaning section to move the cleaning section between a cleaning area and a standby area; a door member configured to open and close an opening portion through which the cleaning member passes when the cleaning member is moved from the standby area to an outside of the printing device ; and a control section , characterized in that the door member is lockable in a closed state, and the control section is configured to unlock the door member in a state where the moving section and the cleaning section are disconnected from each other and the cleaning section is located in the standby area.
A compressed air energy storage power generation device comprising: a compressor that is mechanically connected to a driving machine and compresses air; a first pressure accumulation unit that is configured to store compressed air compressed by the compressor ; an expander driven by compressed air supplied from the first pressure accumulation unit ; a power generator mechanically connected to the expander ; a first heat exchanger that is configured to exchange heat between a heat medium and the compressed air supplied from the compressor to the first pressure accumulation unit ; a second heat exchanger that is configured to exchange heat between the heat medium and the compressed air supplied from the first pressure accumulation unit to the expander ; an SOC detection unit that is configured to detect SOC, that is state of charge, of the first pressure accumulation unit ; an SOC regulating unit that is configured to regulate the SOC of the first pressure accumulation unit ; and a control device that is configured to control the SOC regulating unit such that the SOC detected by the SOC detection unit is within an optimal SOC range while satisfying a requested power, said optimal SOC range being a range of SOC by which the operating efficiencies of the compressor and the expander are improved, wherein the SOC regulating unit includes a valve for permitting/blocking flow of compressed air from the first pressure accumulation unit to the expander . a compressor that is mechanically connected to a driving machine and compresses air; a first pressure accumulation unit that is configured to store compressed air compressed by the compressor ; an expander driven by compressed air supplied from the first pressure accumulation unit ; a power generator mechanically connected to the expander ; a first heat exchanger that is configured to exchange heat between a heat medium and the compressed air supplied from the compressor to the first pressure accumulation unit ; a second heat exchanger that is configured to exchange heat between the heat medium and the compressed air supplied from the first pressure accumulation unit to the expander ; an SOC detection unit that is configured to detect SOC, that is state of charge, of the first pressure accumulation unit ; an SOC regulating unit that is configured to regulate the SOC of the first pressure accumulation unit ; and a control device that is configured to control the SOC regulating unit such that the SOC detected by the SOC detection unit is within an optimal SOC range while satisfying a requested power, said optimal SOC range being a range of SOC by which the operating efficiencies of the compressor and the expander are improved, wherein the SOC regulating unit includes a valve for permitting/blocking flow of compressed air from the first pressure accumulation unit to the expander .
An energy estimation device comprising: an energy change quantity estimation unit configured to estimate an energy change quantity of a vehicle in correspondence to a selected link and considering data of a next link adjacent to the selected link such as average speed and altitude and for each of the links set in correspondence to a predetermined road segment; an axle torque calculation unit configured to calculate, based upon the energy change quantity estimated by the energy change quantity estimation unit, an axle torque applied to an axle of the vehicle during energy regeneration, wherein the axle torque is calculated for a regeneration link in which energy is regenerated upon traveling of the vehicle on a road segment; an allocation ratio calculation unit configured to calculate, based upon the axle torque calculated by the axle torque calculation unit, an allocation ratio, the allocation ratio being a ratio of allocation of a regeneration brake relative to a friction brake of the vehicle for the regeneration link, wherein the relationships between axle torques and the allocation ratios are stored in advance; and a regeneration energy estimation unit configured to estimate regeneration energy of the vehicle for the regeneration link based upon the energy change quantity and the allocation ratio calculated by the allocation ratio calculation unit. an energy change quantity estimation unit configured to estimate an energy change quantity of a vehicle in correspondence to a selected link and considering data of a next link adjacent to the selected link such as average speed and altitude and for each of the links set in correspondence to a predetermined road segment; an axle torque calculation unit configured to calculate, based upon the energy change quantity estimated by the energy change quantity estimation unit, an axle torque applied to an axle of the vehicle during energy regeneration, wherein the axle torque is calculated for a regeneration link in which energy is regenerated upon traveling of the vehicle on a road segment; an allocation ratio calculation unit configured to calculate, based upon the axle torque calculated by the axle torque calculation unit, an allocation ratio, the allocation ratio being a ratio of allocation of a regeneration brake relative to a friction brake of the vehicle for the regeneration link, wherein the relationships between axle torques and the allocation ratios are stored in advance; and a regeneration energy estimation unit configured to estimate regeneration energy of the vehicle for the regeneration link based upon the energy change quantity and the allocation ratio calculated by the allocation ratio calculation unit.
Modular fastening for track crossings, comprising: - a lower plate on which there is placed - an upper plate , and - an outer shoulder , located at each end of the plates , comprising means for anchoring the fastening on a support surface (A), characterized in that the plates and the outer shoulders are attached by means of adhesive bonding, forming a single-block assembly, wherein - the upper plate comprises a smooth central segment located between two grooved areas (2") located in correspondence with the ends of the upper plate , - the fastening further comprises two inner shoulders comprising lower grooves which can engage and fit into a plurality of positions on the grooved areas (2") of the upper plate , where said inner shoulders comprise means for housing and securing an elastic fastening clip (B) for fastening a railway rail (C). - a lower plate on which there is placed - an upper plate , and - an outer shoulder , located at each end of the plates , comprising means for anchoring the fastening on a support surface (A), characterized in that the plates and the outer shoulders are attached by means of adhesive bonding, forming a single-block assembly, wherein - the upper plate comprises a smooth central segment located between two grooved areas (2") located in correspondence with the ends of the upper plate , - the fastening further comprises two inner shoulders comprising lower grooves which can engage and fit into a plurality of positions on the grooved areas (2") of the upper plate , where said inner shoulders comprise means for housing and securing an elastic fastening clip (B) for fastening a railway rail (C).
Electric coffee grinder with a fixed grinder and a mobile grinder arranged inside a grinding chamber , which has an essentially cylindrical shape and is provided with at least one inlet opening for the intended coffee beans to be ground between the two grinders and with an impeller arranged inside said grinding chamber in a position underneath said mobile grinder and provided with arms configured to cause the leakage of coffee powder, which is obtained by grinding said beans, through at least one outlet opening foreseen in the side wall of said grinding chamber , characterized in that said mobile grinder and said impeller are coaxial and are connected to means for their rotation at different speeds.
A pharmaceutical composition in the form of a tablet for oral administration comprising (R)-N-methylnaltrexone bromide and at least one or more of a binder, a wetting agent, a lubricant, a non-functional coating, or an antioxidant, and combinations thereof, wherein the composition comprises sodium lauryl sulfate, a chelating agent, and a disintegrant.
A system for preparing dialysis treatment fluid, comprising: an integrally interconnected fluid circuit including a mixing container pre-connected to the fluid circuit, the mixing container and fluid circuit being sealed from an external environment; the fluid circuit including a valve network having junctions and valve portions that mechanically interface with valve actuators to define selectable flow paths in the valve network; the valve network further including a pumping portion and a fluid inlet line with a connector for connection to a fluid source , the fluid inlet line being fluidly connected to the mixing container by the pumping portion; the valve network fluidly connecting the mixing container to the fluid inlet line ; the fluid inlet line having at least one in-line sterilizing filter that includes either a pair of spaced sterilizing filters or a testable sterilizing filter with an air-line , wherein the fluid inlet line is connected to at least two concentrate containers , the concentrate containers having a capacity sufficient to store enough concentrate to perform multiple peritoneal dialysis treatments, where each treatment includes multiple fill/drain cycles; the system further comprising a manifold connected to the valve network and defining at least some of said junctions, the manifold having two chambers defined by shape of a rigid housing that is sealed by a film , wherein regions of the film form pressure sensors integrated into the manifold . an integrally interconnected fluid circuit including a mixing container pre-connected to the fluid circuit, the mixing container and fluid circuit being sealed from an external environment; the fluid circuit including a valve network having junctions and valve portions that mechanically interface with valve actuators to define selectable flow paths in the valve network; the valve network further including a pumping portion and a fluid inlet line with a connector for connection to a fluid source , the fluid inlet line being fluidly connected to the mixing container by the pumping portion; the valve network fluidly connecting the mixing container to the fluid inlet line ; the fluid inlet line having at least one in-line sterilizing filter that includes either a pair of spaced sterilizing filters or a testable sterilizing filter with an air-line , wherein the fluid inlet line is connected to at least two concentrate containers , the concentrate containers having a capacity sufficient to store enough concentrate to perform multiple peritoneal dialysis treatments, where each treatment includes multiple fill/drain cycles; the system further comprising a manifold connected to the valve network and defining at least some of said junctions, the manifold having two chambers defined by shape of a rigid housing that is sealed by a film , wherein regions of the film form pressure sensors integrated into the manifold .