mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: applying a plurality of layers to a composite repair area 104, the plurality of layers including a moisture detecting bleeder material 102 that includes a fiberglass material and a moisture absorption indicator material, wherein a color change of the moisture absorption indicator material from a first color to a second color is indicative of moisture absorption by the moisture absorption indicator material; applying a bagging film 114 to the composite repair area 104, the bagging film 114 including a fluid interface 116; performing a moisture removal operation that includes applying a pressure that is less than an ambient pressure to the fluid interface 116; removing the bagging film 114 to expose the moisture detecting bleeder material; and evaluating the exposed moisture detecting bleeder material 102 to determine whether the color change occurred. applying a plurality of layers to a composite repair area 104, the plurality of layers including a moisture detecting bleeder material 102 that includes a fiberglass material and a moisture absorption indicator material, wherein a color change of the moisture absorption indicator material from a first color to a second color is indicative of moisture absorption by the moisture absorption indicator material; applying a bagging film 114 to the composite repair area 104, the bagging film 114 including a fluid interface 116; performing a moisture removal operation that includes applying a pressure that is less than an ambient pressure to the fluid interface 116; removing the bagging film 114 to expose the moisture detecting bleeder material; and evaluating the exposed moisture detecting bleeder material 102 to determine whether the color change occurred.
A method comprising: receiving, at a network device, flow data for a plurality of flows from a server, the flow data comprising for each of said flows, a destination address and a time indicating when a recent packet was processed for said flow at the server; updating a flow table at the network device, the flow table being separate from a forwarding information base at the network device, and wherein the flow table comprises an entry for each flow including said destination address, and the time indicating when the recent packet was processed for said flow at the server; identifying one of said flows in the flow table as an inactive flow based on whether the time in the flow table indicating when the recent packet was processed for said flow at the server is older than a specified time; and removing a route for said inactive flow from the forwarding information base at the network device; wherein the time when a recent packet was processed comprises the time the recent packet for said flow was received or transmitted at the server. receiving, at a network device, flow data for a plurality of flows from a server, the flow data comprising for each of said flows, a destination address and a time indicating when a recent packet was processed for said flow at the server; updating a flow table at the network device, the flow table being separate from a forwarding information base at the network device, and wherein the flow table comprises an entry for each flow including said destination address, and the time indicating when the recent packet was processed for said flow at the server; identifying one of said flows in the flow table as an inactive flow based on whether the time in the flow table indicating when the recent packet was processed for said flow at the server is older than a specified time; and removing a route for said inactive flow from the forwarding information base at the network device; wherein the time when a recent packet was processed comprises the time the recent packet for said flow was received or transmitted at the server.
A compound of formula I1 wherein the individual radicals, independently of each other and on each occurrence identically or differently, have the following meanings P acrylate or methacrylate, Sp a single bond, L F, Cl, Br, -CN or straight chain, branched or cyclic alkyl having 1 to 25 C atoms, wherein one or more non-adjacent CH 2 -groups are optionally replaced by -O-, -S-, -CO-, -CO-O-, -O-CO-, -O-CO-O-, -N(R 0)-, -Si(R 0 R 00)-, -CH=CH- or -C ≡ C- in such a manner that O- and/or S-atoms are not directly connected with each other, and wherein one or more H atoms are each optionally replaced by F or Cl, R 0, R 00 H or alkyl with 1 to 12 C atoms, r1 0, 1, 2, 3 or 4, preferably 0, 1 or 2. P acrylate or methacrylate, Sp a single bond, L F, Cl, Br, -CN or straight chain, branched or cyclic alkyl having 1 to 25 C atoms, wherein one or more non-adjacent CH 2 -groups are optionally replaced by -O-, -S-, -CO-, -CO-O-, -O-CO-, -O-CO-O-, -N(R 0)-, -Si(R 0 R 00)-, -CH=CH- or -C ≡ C- in such a manner that O- and/or S-atoms are not directly connected with each other, and wherein one or more H atoms are each optionally replaced by F or Cl, R 0, R 00 H or alkyl with 1 to 12 C atoms, r1 0, 1, 2, 3 or 4, preferably 0, 1 or 2.
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.
A method for camera tracking of a user's head, the method comprising: tracking, using a camera, a user's head by resolving facial features of the user; measuring a first ambient light level; determining that the first ambient light level is beyond a threshold value; tracking, using the camera, the user's head by detecting light reflected from reflective material on glasses that the user is wearing; switching, based on the determination that the first ambient light level is beyond the first threshold value, between tracking the user's head by resolving facial features and tracking using detected light reflected from the reflective material on the glasses; and outputting a position, orientation, or motion of the user's head based on the trackings. tracking, using a camera, a user's head by resolving facial features of the user; measuring a first ambient light level; determining that the first ambient light level is beyond a threshold value; tracking, using the camera, the user's head by detecting light reflected from reflective material on glasses that the user is wearing; switching, based on the determination that the first ambient light level is beyond the first threshold value, between tracking the user's head by resolving facial features and tracking using detected light reflected from the reflective material on the glasses; and outputting a position, orientation, or motion of the user's head based on the trackings.
An endoprosthesis, comprising: a member comprising a bioerodible material; and an antioxidant carried by the member, wherein the endoprothesis includes a bioerodible layer and an antioxidant layer, wherein the antioxidant layer is positioned outward of the bioerodible layer, and wherein the antioxidant layer is formed of a bioerodible or non-bioerodible metal or ceramic, having a plurality of pores wherein the antioxidant is dispersed in the pores of the antioxidant layer.
Phased array antenna, comprising: a feed structure adapted to guide an electromagnetic wave; a plurality of controllable elements (104_1:104_n) coupled to the feed structure; and a plurality of radiating elements (106_1:106_m); wherein each of the radiating elements (106_1:106_m) is coupled to at least two of the plurality of controllable elements (104_1:104_n); wherein the feed structure comprises a waveguide; wherein the controllable elements (104_1:104_n) are arranged between coupling points of the waveguide and the radiating elements (106_1:106_m); and wherein the controllable elements (104_1:104_n) comprise - independently controllable phase shifter elements; or - a tunable material. a feed structure adapted to guide an electromagnetic wave; a plurality of controllable elements (104_1:104_n) coupled to the feed structure; and a plurality of radiating elements (106_1:106_m); wherein each of the radiating elements (106_1:106_m) is coupled to at least two of the plurality of controllable elements (104_1:104_n); wherein the feed structure comprises a waveguide; wherein the controllable elements (104_1:104_n) are arranged between coupling points of the waveguide and the radiating elements (106_1:106_m); and wherein the controllable elements (104_1:104_n) comprise - independently controllable phase shifter elements; or - a tunable material. - independently controllable phase shifter elements; or - a tunable material.
Storage container for liquids or for viscous or atomisable products, which can be connected to a metering device, wherein, the storage container has a cylindrical configuration and has a base with a pressure equalisation device (7, 12) and also an oppositely situated open side, the open side including a connection region, wherein a pump head is attached to the storage container by means of the connection region, and in that an inner bag which is collapsible by suction force is disposed in the storage container, wherein the inner bag is formed by bellows which are collapsible in the axial direction and that a contact device which is in contact with the inner wall of the storage container is disposed on at least one fold of the bellows, wherein the contact device is configured in one piece with the at least one fold, or the contact device is configured as a separate component and is connected to the at least one fold.
A composition comprising 4-amino-α,α-dimethyl-2-ethoxymethyl-1H-imidazo[4,5-c]quinolin-1-ethanol (resiquimod), or a pharmaceutically acceptable salt thereof, for use in treating or ameliorating cutaneous T-cell lymphoma (CTCL), wherein the composition is to be administered topically, transdermally, intradermally or intralesionally, wherein the composition comprises about 0.03-0.06% (w/w) of resiquimod.
Process for preparing fesoterodine fumarate which comprises: the salification reaction of fesoterodine with fumaric acid in at least one ketone having from three to six carbon atoms at a temperature between 30 and 45° C, wherein a mixture of fesoterodine and fumaric acid is heated in the aforesaid at least one ketone having from three to six carbon atoms, until complete dissolution for a period comprised between 10 minutes and two hours, and the solution is then cooled at a temperature lower than 25°C; and the precipitation of the fesoterodine fumarate thus-obtained.
A method, comprising: positioning a distal end of a base of an inserter on a skin surface; applying a predetermined force on a housing of the inserter to displace an analyte monitoring assembly operatively coupled to an introducer mechanism (134, 136) from a first position within the housing to a second position wherein at least a portion of an analyte sensor of the analyte monitoring assembly is in contact with an analyte under the skin surface, and further, wherein a distal surface of the analyte monitoring assembly is positioned on the skin surface, and wherein the analyte sensor comprises a glucose sensor; providing a bias mechanism within a hollow space of the housing to automatically retract the introducer mechanism from the second position to the first position; automatically retracting the introducer mechanism from the second position to the first position to be entirely retained within the housing; and providing, using Bluetooth communication, one or more data associated with a monitored level of an analyte to a remote location only in response to a request for data received from the remote location; wherein the method further comprises: prior to positioning the distal end of the base, disengaging an end cap from a bottom end of the housing to expose the hollow space of the housing; and preventing the displacement of the analyte monitoring assembly within the hollow space between the first position and the second position when the end cap is engaged via an annular ridge of the end cap with the bottom end of the housing. positioning a distal end of a base of an inserter on a skin surface; applying a predetermined force on a housing of the inserter to displace an analyte monitoring assembly operatively coupled to an introducer mechanism (134, 136) from a first position within the housing to a second position wherein at least a portion of an analyte sensor of the analyte monitoring assembly is in contact with an analyte under the skin surface, and further, wherein a distal surface of the analyte monitoring assembly is positioned on the skin surface, and wherein the analyte sensor comprises a glucose sensor; providing a bias mechanism within a hollow space of the housing to automatically retract the introducer mechanism from the second position to the first position; automatically retracting the introducer mechanism from the second position to the first position to be entirely retained within the housing; and providing, using Bluetooth communication, one or more data associated with a monitored level of an analyte to a remote location only in response to a request for data received from the remote location; prior to positioning the distal end of the base, disengaging an end cap from a bottom end of the housing to expose the hollow space of the housing; and preventing the displacement of the analyte monitoring assembly within the hollow space between the first position and the second position when the end cap is engaged via an annular ridge of the end cap with the bottom end of the housing.
Mobile body disinfection apparatus (1; 30; 40; 50; 60; 70; 80; 90) comprising a carrying structure (2; 32; 44; 51; 61; 72; 82; 92), a waste collection vessel (4; 33; 42; 63; 71, 73; 81, 83; 91, 93), a liquid disinfectant dispensing element (5; 34; 43; 74, 75; 84, 85; 94; 95), a filling tank (6; 86a) for said liquid, a supply line with a pump to carry said liquid from the tank (6; 86a) to the dispensing element (5; 34; 43; 74, 75; 84, 85; 94; 95), a waste tank (13; 86b) connected to said waste collection vessel (4; 33; 42; 63; 71, 73; 81, 83; 91, 93), a drainage line, at least one filter arranged on said supply line and suitable to guarantee the elimination of infective elements that might be present in the liquid disinfectant and a central control and command unit to manage at least the dispensing of said liquid; said mobile body disinfection apparatus being characterized in that said liquid disinfectant dispensing element (5; 34; 43; 74, 75; 84, 85; 94; 95) is operated by a photoelectric cell and/or by a dispensing timer control, in that the filling tank (6; 86a) is insulated with insulating material to enable the liquid disinfectant to be maintained at the appropriate temperature for the entire working shift, and in that said supply line comprises one or more pipes (8, 11, 12) made of silicone to prevent the proliferation of bacteria.
A method of preparing a medical device having an activated surface, the method comprising: acid- or base-treating at least a portion of a biocompatible polymeric surface of a medical device; and characterized in that the method further comprises attaching one or more click reactive functional groups to the acid- or base-treated biocompatible polymeric surface of the medical device, wherein said click reactive functional group can undergo a cycloaddition click reaction to couple a substance to the medical device, the cycloaddition click reaction being selected from a Huisgen 1,3- dipolar cycloaddition of a dipolarophile with a 1,3-dipolar component that produces five member (hetero)cycles or a Diels-Alder reaction of a conjugated diene and a dienophile. acid- or base-treating at least a portion of a biocompatible polymeric surface of a medical device; and characterized in that the method further comprises attaching one or more click reactive functional groups to the acid- or base-treated biocompatible polymeric surface of the medical device, wherein said click reactive functional group can undergo a cycloaddition click reaction to couple a substance to the medical device, the cycloaddition click reaction being selected from a Huisgen 1,3- dipolar cycloaddition of a dipolarophile with a 1,3-dipolar component that produces five member (hetero)cycles or a Diels-Alder reaction of a conjugated diene and a dienophile.
A method of controlling the speed of at least one DC brush motor (2, 3; 801) in a motorised mobility vehicle, wherein the motor is part of a drive circuit for mobilising the mobility vehicle, the method comprising the steps of: developing at least one resistance based motor performance parameter of the motor, characterised in that the method further comprises: developing a resistance and load current based profile of the motor (2, 3, 801) based on the developed motor performance parameter; storing the developed profile; utilising the stored profile to develop a compensation term for controlling the motor power, thereby controlling the speed of the motor (2, 3; 801) in the motorised mobility vehicle; and dynamically updating the compensation term when the mobility vehicle is being driven by a user to control the motor power based on the stored profile. developing a resistance and load current based profile of the motor (2, 3, 801) based on the developed motor performance parameter; storing the developed profile; utilising the stored profile to develop a compensation term for controlling the motor power, thereby controlling the speed of the motor (2, 3; 801) in the motorised mobility vehicle; and dynamically updating the compensation term when the mobility vehicle is being driven by a user to control the motor power based on the stored profile.
System for producing at least one substance from at least one starting material using electrical energy, comprising: a) at least one combined heat and power system, b) at least one first power grid assigned to the CHP system, c) at least one interface to a second power grid, d) a conversion device, which can be operatively connected to the first and second power grid (15, 35), the conversion device being formed to convert the at least one starting material into the at least one substance using electrical energy from the first and/or second power grid (15, 35), and wherein the system is formed in such a way that a constant flow of energy from the first and/or second power grid (15, 35) into the conversion device can be achieved using at least one current control device. a) at least one combined heat and power system, b) at least one first power grid assigned to the CHP system, c) at least one interface to a second power grid, d) a conversion device, which can be operatively connected to the first and second power grid (15, 35), the conversion device being formed to convert the at least one starting material into the at least one substance using electrical energy from the first and/or second power grid (15, 35), and
A server comprising: a housing including a top side and a bottom portion; a first node defined by first and second printed circuit assemblies respectively disposed adjacent to the top side and the bottom portion of the housing; a second node defined by third and fourth printed circuit assemblies respectively disposed adjacent to the top side and the bottom portion of the housing; a first connector attaching the first and second printed circuit assemblies (102, 104) to one another; a second connector attaching the third and fourth printed circuit assemblies (106, 108) to one another; two sets of memory components (208, 210) disposed on each of the second and fourth printed circuit assemblies (104, 108); and a processor (204, 206) disposed between each set of the memory components (208, 210); and mezzanine boards (310, 312) disposed on the first and third printed circuit assemblies (102, 106) opposite to the processors (204, 206) disposed on the second and fourth printed circuit assemblies (104, 108) when the first and second nodes are positioned in the housing; wherein the first and third printed circuit assemblies (102, 106) are I/O boards and the second and fourth printed circuit assemblies are motherboards (104, 108). a housing including a top side and a bottom portion; a first node defined by first and second printed circuit assemblies respectively disposed adjacent to the top side and the bottom portion of the housing; a second node defined by third and fourth printed circuit assemblies respectively disposed adjacent to the top side and the bottom portion of the housing; a first connector attaching the first and second printed circuit assemblies (102, 104) to one another; a second connector attaching the third and fourth printed circuit assemblies (106, 108) to one another; two sets of memory components (208, 210) disposed on each of the second and fourth printed circuit assemblies (104, 108); and a processor (204, 206) disposed between each set of the memory components (208, 210); and mezzanine boards (310, 312) disposed on the first and third printed circuit assemblies (102, 106) opposite to the processors (204, 206) disposed on the second and fourth printed circuit assemblies (104, 108) when the first and second nodes are positioned in the housing;