mhurhangee/ep-ind-claims huggingface dataset:
A head mountable device for detecting a functional disorder of the brain in a patient, comprising: an opaque visor unit for positioning over the eyes of the patient, wherein the visor unit includes an arrangement of a plurality of LEDs positioned on an inside surface of said visor unit to which, during use, the eyes of the patient are exposed, and an LED driver, said LED driver being configured to control each of said LEDs independently to display a visual stimulus; a plurality of reference sensors (1700a, 1700b) adapted to detect a reference electrical potential for the patient during exposure to a visual stimulus; and a sensor housing including at least one electroencephalogram electrode for measuring electrical potential generated by the brain of the patient; the device being configured to be mountable on the head of a patient such that when mounted on the head of a patient the plurality of LEDs are positioned before the eyes of the patient and the at least one EEG electrode is positioned adjacent to the occipital lobe of the patient. an opaque visor unit for positioning over the eyes of the patient, wherein the visor unit includes an arrangement of a plurality of LEDs positioned on an inside surface of said visor unit to which, during use, the eyes of the patient are exposed, and an LED driver, said LED driver being configured to control each of said LEDs independently to display a visual stimulus; an arrangement of a plurality of LEDs positioned on an inside surface of said visor unit to which, during use, the eyes of the patient are exposed, and an LED driver, said LED driver being configured to control each of said LEDs independently to display a visual stimulus; a plurality of reference sensors (1700a, 1700b) adapted to detect a reference electrical potential for the patient during exposure to a visual stimulus; and a sensor housing including at least one electroencephalogram electrode for measuring electrical potential generated by the brain of the patient; the device being configured to be mountable on the head of a patient such that when mounted on the head of a patient the plurality of LEDs are positioned before the eyes of the patient and the at least one EEG electrode is positioned adjacent to the occipital lobe of the patient.
A control unit for a surgical robot system including a robot having a rigid proximal portion having a remote center of motion, a distal portion being flexible to permit the maneuvering of the distal portion with one or more degrees of freedom and being deployable through the proximal portion and at least one image acquisition device, the control unit comprising: a processor configured to: receive images from the at least one image acquisition device; generate a first deployment path to a first target position based on the received images; generate a second deployment path to a second target position from the first target position based on the received images; generate first guidance information for positioning the proximal portion along the first deployment path; track position of the distal portion within a region of interest; generate second guidance information for positioning the distal portion along the second deployment path; and deploy the first guidance information to the proximal portion for guiding the proximal portion to the first target position, and subsequently deploy the second guidance information to the distal portion for guiding the distal portion to the second target position. receive images from the at least one image acquisition device; generate a first deployment path to a first target position based on the received images; generate a second deployment path to a second target position from the first target position based on the received images; generate first guidance information for positioning the proximal portion along the first deployment path; track position of the distal portion within a region of interest; generate second guidance information for positioning the distal portion along the second deployment path; and deploy the first guidance information to the proximal portion for guiding the proximal portion to the first target position, and subsequently deploy the second guidance information to the distal portion for guiding the distal portion to the second target position.
An electric connector comprising: an insulated housing on which a port for connection of conductor wire is provided, a male plug (11,11') provided at one end of the housing and a female socket (12, 12') provided at the opposite end of the housing, the male plug (11, 11') and female socket (12, 12') having an electrode respectively, and an electrode slice provided inside the housing and connected with a pair of the male plug (11, 11') and female socket (12, 12'), wherein said female socket (12, 12') has an opening being adaptive to accommodate the male plug (11, 11') and effecting a connection of the electrodes of the male plug (11, 11') and female socket (12, 12') which are spliced together, and wherein each of the female socket (12, 12') comprises a reed electrode (121, 121'), characterized in that, wherein the electrode slice of the male plug (11, 11') has a shape of "C" around its central portion, and the reed electrode (121, 121') comprises a bottom being electrically connected with the electrode slice (14, 14'), and elastic reeds extending from the middle part and two sides of the bottom, the elastic reeds being adaptive to the male plug (11, 11'), so that the reed electrode can clamp the "C" shaped electrode of an inserted male plug (11, 11') and form electric connection when the female socket (12, 12') is inserted by a male plug (11, 11') of another electric connector. an insulated housing on which a port for connection of conductor wire is provided, a male plug (11,11') provided at one end of the housing and a female socket (12, 12') provided at the opposite end of the housing, the male plug (11, 11') and female socket (12, 12') having an electrode respectively, and an electrode slice provided inside the housing and connected with a pair of the male plug (11, 11') and female socket (12, 12'), wherein said female socket (12, 12') has an opening being adaptive to accommodate the male plug (11, 11') and effecting a connection of the electrodes of the male plug (11, 11') and female socket (12, 12') which are spliced together, and wherein each of the female socket (12, 12') comprises a reed electrode (121, 121'), characterized in that, wherein the electrode slice of the male plug (11, 11') has a shape of "C" around its central portion, and the reed electrode (121, 121') comprises a bottom being electrically connected with the electrode slice (14, 14'), and elastic reeds extending from the middle part and two sides of the bottom, the elastic reeds being adaptive to the male plug (11, 11'), so that the reed electrode can clamp the "C" shaped electrode of an inserted male plug (11, 11') and form electric connection when the female socket (12, 12') is inserted by a male plug (11, 11') of another electric connector.
A conveyor device for a machining apparatus for machining preferably panel-shaped workpieces, for example floor panels, comprising a support as well as a conveyor belt (30, 30") circulating around the support and a guide means (24, 24"), the conveyor belt (30, 30") having profiling (31, 31") in the direction of extension, which profiling (31, 31") is in engagement with the guide means (24, 24"), the profiling being a recess (31, 31"), and at least one guide roller (24, 24") being provided as the guide means, and furthermore at least one first support roller being provided for supporting the conveyor belt.
Process for preparing aldehydes having five carbon atoms, in which an input mixture containing 10% by weight to 50% by weight of linear butenes and less than 5% by weight of 1-butene is hydroformylated with synthesis gas in the presence of a catalyst system comprising rhodium and at least one bisphosphite ligand, wherein the hydroformylation is effected in a reactor from which, over an operating period, a cycle gas containing at least a portion of the products and unconverted reactants from the hydroformylation is continuously drawn off and partly condensed, and uncondensed components of the cycle gas are recycled into the reactor, and wherein, after the operating period has expired, the hydroformylation is stopped, the reactor is freed of reaction residues and the hydroformylation is restarted, characterized in that the operating period lasts for at least 8000 h, there is no separation of solid reaction residues out of the reactor during the course of the operating period, and in that the catalyst system comprises the bisphosphite ligand of the formula and/or the bisphosphite ligand of the formula:
An individual blade control system, IBCS, for a rotor system (16, 18) comprising: a rotor hub (22, 24); a plurality of blade cuffs diametrically opposite to each other and mounted to the rotor hub (16, 18), each blade cuff being configured to receive a rotor blade and rotate about a blade axis; a plurality of electrical actuators mounted to the rotor hub (22, 24) being adjacent to at least one of the plurality of blade cuffs, only one separate electrical actuator being foreseen for each blade cuff each electrical actuator being configured to rotate about an actuator axis, the plurality of blade axes and the plurality of actuator axes being arranged in a single plane; wherein each electrical actuator is coupled to an adjacent blade cuff such that rotation of one of the plurality of electrical actuators causes a proportional rotation of only the blade cuff coupled to that electrical actuator.
A verification method for a product, wherein a. said product comprising a matrix and particles, b. said particles comprise (i) a nucleic acid core and (ii) a non-porous silica coating, c. said method comprises the step of dissolving said particles in an aqueous buffered fluoride solution, characterized in that said nucleic acid core (i) comprises • one or more positively charged solid spheres; • one or more nucleic acids adsorbed on these spheres; and optionally • aminoalkyl substituted alkoxysilanes adsorbed on these nucleic acids; and and whereby the term non-porous coating refers to a coating (i) having a porosity below 0.1 cm 3 /g of pores of the open, intraparticle type as determined by nitrogen adsorption and (ii) having a size in the range of 2 - 50 nm in diameter (meso-size). a. said product comprising a matrix and particles, b. said particles comprise (i) a nucleic acid core and (ii) a non-porous silica coating, c. said method comprises the step of dissolving said particles in an aqueous buffered fluoride solution, • one or more positively charged solid spheres; • one or more nucleic acids adsorbed on these spheres; and optionally • aminoalkyl substituted alkoxysilanes adsorbed on these nucleic acids; and
A fuel cell module comprising - fuel cells arranged in a cell stack and - an air supply system for supplying air into an air distribution space for operating or cooling the fuel cells, wherein the fuel cells are stacked in an axial direction wherein the air supply system is arranged completely radially outside the cell stack, characterized in that the air supply system is designed such that a cooling results due to the supplied air of the fuel cells which is not of uniform strength in the axial direction. - fuel cells arranged in a cell stack and - an air supply system for supplying air into an air distribution space for operating or cooling the fuel cells,
A magnetic filter (10, 10') for a central heating system, the filter (10, 10') including a separation chamber (12, 12'), a magnet (16, 16') for capturing magnetic particles within the separation chamber (12, 12'), an inlet (30, 30') for fluidly connecting to a central heating system circuit, an outlet (32, 32') for fluidly connecting to the central heating system circuit, and a single valve (36, 36') provided between the inlet (30, 30'), the outlet (32, 32') and the separation chamber (12, 12'), and operable to select between at least two positions, the single valve (36, 36') in a first position fluidly connecting the inlet (30, 30') to the separation chamber (12, 12') and also fluidly connecting the outlet (32, 32') to the separation chamber (12, 12') and the single valve (36, 36') in a second position isolating both the inlet (30, 30') and the outlet (32, 32') from the separation chamber (12, 12'), characterised in that the separation chamber comprises a bleed valve and a drain port whereby the separation chamber can be oriented such that bleed valve and the drain port are provided at the top and bottom respectively of the separation chamber (12, 12'), and the valve (36, 36') between the inlet (30, 30'), the outlet (32, 32') and the separation chamber (12, 12') being movable between the first position and the second position by means of an external handle, in which the valve (36, 36') is a ball valve, the ball of the valve (36, 36') being provided within a valve housing and the valve housing including a bypass chamber, the valve (36, 36') in the second position isolating both the inlet (30 30') and the outlet (32, 32') from the separation chamber (12, 12') but fluidly connecting the inlet (30, 30') to the outlet (32, 32') via the bypass chamber. and the valve (36, 36') between the inlet (30, 30'), the outlet (32, 32') and the separation chamber (12, 12') being movable between the first position and the second position by means of an external handle, in which the valve (36, 36') is a ball valve, the ball of the valve (36, 36') being provided within a valve housing and the valve housing including a bypass chamber, the valve (36, 36') in the second position isolating both the inlet (30 30') and the outlet (32, 32') from the separation chamber (12, 12') but fluidly connecting the inlet (30, 30') to the outlet (32, 32') via the bypass chamber.
A method of manufacturing a liquid crystal device, the method comprising: jet depositing a plurality of different compositions of material on a substrate, wherein the different compositions comprise liquid crystal material and an other material, wherein each of the different compositions is deposited on a different area of the substrate; imprinting a pattern on the layer of liquid crystal material using an imprint template, such that molecules of the liquid crystal material are self-aligned to the pattern; and characterized by a step of immobilizing the molecules of the liquid crystal material by subjecting the liquid crystal material to an immobilization process. jet depositing a plurality of different compositions of material on a substrate, wherein the different compositions comprise liquid crystal material and an other material, wherein each of the different compositions is deposited on a different area of the substrate; imprinting a pattern on the layer of liquid crystal material using an imprint template, such that molecules of the liquid crystal material are self-aligned to the pattern; and characterized by a step of immobilizing the molecules of the liquid crystal material by subjecting the liquid crystal material to an immobilization process.
A medical device comprising: a flexible elongate member comprising a distal portion configured to be navigated though vasculature of a patient to a target treatment site; a first balloon portion connected to the flexible elongated member, wherein the first balloon portion is inflatable to an expanded state to occlude a proximal portion of the vasculature proximal to the target treatment site; a second balloon portion connected to the flexible elongated member, wherein the second balloon portion is inflatable to an expanded state to occlude a distal portion of the vasculature distal to the target treatment site, and wherein when the first and second balloon portions (18, 20) are in the respective expanded states within the vasculature, a cavity is defined between the flexible elongate member and the target treatment site, the cavity being exterior to and between the first and second balloon portions (18, 20); and a cavitation generator configured to deliver energy to a fluid within the cavity to cause the fluid to undergo cavitation to generate a pressure pulse wave within the fluid, characterised in that the medical device comprises a treatment balloon positioned over the flexible elongated member, the treatment balloon being inflatable within the cavity to expand the vasculature after delivery of the pressure pulse wave by the cavitation generator. a flexible elongate member comprising a distal portion configured to be navigated though vasculature of a patient to a target treatment site; a first balloon portion connected to the flexible elongated member, wherein the first balloon portion is inflatable to an expanded state to occlude a proximal portion of the vasculature proximal to the target treatment site; a second balloon portion connected to the flexible elongated member, wherein the second balloon portion is inflatable to an expanded state to occlude a distal portion of the vasculature distal to the target treatment site, and wherein when the first and second balloon portions (18, 20) are in the respective expanded states within the vasculature, a cavity is defined between the flexible elongate member and the target treatment site, the cavity being exterior to and between the first and second balloon portions (18, 20); and a cavitation generator configured to deliver energy to a fluid within the cavity to cause the fluid to undergo cavitation to generate a pressure pulse wave within the fluid, characterised in that the medical device comprises a treatment balloon positioned over the flexible elongated member, the treatment balloon being inflatable within the cavity to expand the vasculature after delivery of the pressure pulse wave by the cavitation generator.
An application server (120, 212) comprising: one or more processors; and one or more computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving a registration request associated with a user equipment, UE; determining, based at least in part on the registration request, that the UE is associated with over-the-top, OTT, services; generating, based at least in part on the determining that the UE is associated with OTT services, a push notification; and sending, to a secure push proxy, SPP system, the push notification, wherein the push notification instructs to the SPP system to generate one or more second push notifications to instruct one or more OTT applications associated with the UE to reregister with a mobile network. one or more processors; and one or more computer-readable media storing computer-executable instructions that, when executed by the one or more processors, cause the one or more processors to perform acts comprising: receiving a registration request associated with a user equipment, UE; determining, based at least in part on the registration request, that the UE is associated with over-the-top, OTT, services; generating, based at least in part on the determining that the UE is associated with OTT services, a push notification; and sending, to a secure push proxy, SPP system, the push notification, wherein the push notification instructs to the SPP system to generate one or more second push notifications to instruct one or more OTT applications associated with the UE to reregister with a mobile network. receiving a registration request associated with a user equipment, UE; determining, based at least in part on the registration request, that the UE is associated with over-the-top, OTT, services; generating, based at least in part on the determining that the UE is associated with OTT services, a push notification; and sending, to a secure push proxy, SPP system, the push notification, wherein the push notification instructs to the SPP system to generate one or more second push notifications to instruct one or more OTT applications associated with the UE to reregister with a mobile network.
Nozzle closure for the tank nozzle of a motor vehicle with a pipe nozzle and with a closure insert arranged in the upper area of the pipe nozzle, which has a filler opening for a pump nozzle and a sealing flap pivotable around a pivot axis, which is held by a closure force acting against the opening movement in the closed condition and can be opened by pushing in the pump nozzle, characterised in that the nozzle closure has at least one indicator means with an indicator area designed and moveably mounted in such a way that the indicator means is located in an inactive position, in which the indicator area is not visible for the user, when the sealing flap is closed, and where the indicator means is of necessity displaced into a signal position in which the indicator area is visible for the user when the sealing flap is at least partially open.
A method for manufacturing a lower housing of a battery pack, the method comprising the steps of: preparing a cooling pipe, which protrudes to the outside of the lower housing so as to be insert-connected to an external quick connector, includes a locking protrusion having a first outer diameter at a quick connector insertion part to be connected to the external quick connector, and a second outer diameter for enabling the locking protrusion to be fixed to the external quick connector in the inward direction in a first length (l 1) at the end of the quick connector insertion part, and has a joint part, which has a predetermined length and a third outer diameter that is greater than or equal to the second outer diameter, in the inward direction in a second length (l 2) longer than the first length (l 1) at the end of the quick connector insertion part, and which is to be disposed over a cooling pipe inlet of the lower housing; preparing a slider including one or more pipe insertion parts having inner diameters corresponding to the third outer diameter of the joint part; inserting the quick connector insertion parts of the cooling pipe into the pipe insertion parts of the slider; coupling a lower housing mold to the cooling pipe; forming the lower housing by using the lower housing mold; and removing the slider and the lower housing mold. preparing a cooling pipe, which protrudes to the outside of the lower housing so as to be insert-connected to an external quick connector, includes a locking protrusion having a first outer diameter at a quick connector insertion part to be connected to the external quick connector, and a second outer diameter for enabling the locking protrusion to be fixed to the external quick connector in the inward direction in a first length (l 1) at the end of the quick connector insertion part, and has a joint part, which has a predetermined length and a third outer diameter that is greater than or equal to the second outer diameter, in the inward direction in a second length (l 2) longer than the first length (l 1) at the end of the quick connector insertion part, and which is to be disposed over a cooling pipe inlet of the lower housing; preparing a slider including one or more pipe insertion parts having inner diameters corresponding to the third outer diameter of the joint part; inserting the quick connector insertion parts of the cooling pipe into the pipe insertion parts of the slider; coupling a lower housing mold to the cooling pipe; forming the lower housing by using the lower housing mold; and removing the slider and the lower housing mold.