mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical system, comprising: a surgical impactor , the surgical impactor including an anvil and being configured to produce energy to move the anvil along an anvil axis ; an adapter configured to interface a surgical implement with the surgical impactor, the adapter comprising: a surface for communicating an impact in a first direction ; and wherein the adapter comprises a sensor and is configured to detect a type of surgical implement , wherein the sensor is configured to communicate information to the surgical impactor; wherein, during operation of the surgical impactor, the surface communicates an impact from the anvil through the adapter to the surgical implement; wherein the surgical impactor further comprises a controller , wherein the controller is configured to use the detected type of surgical implement to adjust a stroke, power or frequency of impacts. a surgical impactor , the surgical impactor including an anvil and being configured to produce energy to move the anvil along an anvil axis ; an adapter configured to interface a surgical implement with the surgical impactor, the adapter comprising: a surface for communicating an impact in a first direction ; and wherein the adapter comprises a sensor and is configured to detect a type of surgical implement , wherein the sensor is configured to communicate information to the surgical impactor; a surface for communicating an impact in a first direction ; and wherein the adapter comprises a sensor and is configured to detect a type of surgical implement , wherein the sensor is configured to communicate information to the surgical impactor; wherein, during operation of the surgical impactor, the surface communicates an impact from the anvil through the adapter to the surgical implement; wherein the surgical impactor further comprises a controller , wherein the controller is configured to use the detected type of surgical implement to adjust a stroke, power or frequency of impacts.
A method comprising: transmitting, by a dispensing device, a wireless signal from the dispensing device in close proximity to the dispensing device, the wireless signal including a device identification of the dispensing device; receiving, at the dispensing device, an event notification, the event notification associated with a mobile device that received the wireless signal in close proximity to the dispensing device; displaying, in response to the event notification, a customized user interface, the customized user interface based on preference data or profile data included in the event notification, the preference data or profile data associated with a user of the mobile device; directly connecting, by the dispensing device, via a first wireless connection with the mobile device, the first wireless connection configured to exchange data between the dispensing device and the mobile device; wherein the dispensing device comprises a first access point for establishing the first wireless connection; and sending, by the dispensing device, second connection data to the mobile device, the second connection data comprising credentials for establishing a second wireless connection with a second access point, wherein the second access point is external to the dispensing device, wherein the credentials comprise a service set identifier of the second access point and a password for the second access point, and wherein the second wireless connection has a greater bandwidth than the first wireless connection. transmitting, by a dispensing device, a wireless signal from the dispensing device in close proximity to the dispensing device, the wireless signal including a device identification of the dispensing device; receiving, at the dispensing device, an event notification, the event notification associated with a mobile device that received the wireless signal in close proximity to the dispensing device; displaying, in response to the event notification, a customized user interface, the customized user interface based on preference data or profile data included in the event notification, the preference data or profile data associated with a user of the mobile device; directly connecting, by the dispensing device, via a first wireless connection with the mobile device, the first wireless connection configured to exchange data between the dispensing device and the mobile device; wherein the dispensing device comprises a first access point for establishing the first wireless connection; and sending, by the dispensing device, second connection data to the mobile device, the second connection data comprising credentials for establishing a second wireless connection with a second access point, wherein the second access point is external to the dispensing device, wherein the credentials comprise a service set identifier of the second access point and a password for the second access point, and wherein the second wireless connection has a greater bandwidth than the first wireless connection.
A computer-implemented method for analysing ECG output, the method comprising the steps of:- a. for each of a plurality of leads of an ECG, at multiple time points, determining a value derived from the output of that lead and which corresponds to an action potential duration; b. for each of the plurality of leads of the ECG, at the multiple time points, determining a value derived from the output of that lead and which corresponds to a diastolic interval; c. for each of the plurality of leads of the ECG, using the determined values for action potential duration and diastolic interval across the multiple time points to determine a restitution curve for each lead; and d. determining the gradient of the restitution curve for each lead at one time point; combining the gradients determined for each lead at one time point to derive a combined value, wherein the combined value is obtained by establishing an average gradient across the leads at one time point; characterised in that the method further comprises the steps of: deriving said combined value for each time point; and identifying the highest combined value from the combined values, reflecting the steepest gradient. a. for each of a plurality of leads of an ECG, at multiple time points, determining a value derived from the output of that lead and which corresponds to an action potential duration; b. for each of the plurality of leads of the ECG, at the multiple time points, determining a value derived from the output of that lead and which corresponds to a diastolic interval; c. for each of the plurality of leads of the ECG, using the determined values for action potential duration and diastolic interval across the multiple time points to determine a restitution curve for each lead; and d. determining the gradient of the restitution curve for each lead at one time point; combining the gradients determined for each lead at one time point to derive a combined value, wherein the combined value is obtained by establishing an average gradient across the leads at one time point; deriving said combined value for each time point; and identifying the highest combined value from the combined values, reflecting the steepest gradient.
A method of forming an image of a fluorescent microscope slide , comprising: acquiring an image of a fluorescent microscope slide at a first exposure level resulting in a first acquired image at a first contrast level; acquiring at least one additional image of said fluorescent microscope slide each at an exposure level different from each other and different from the first exposure, resulting in different acquired images at different contrast levels; and characterized by : forming a composite image of said fluorescent microscope slide by forming a weighted sum of the intensity values of corresponding pixels of each of said images, whereby said composite image has a composite contrast level over the entire composite image that represents a weighted average of said contrast levels, wherein the weight given to each of said pixels of each of said images is calculated from a localized contrast measure around that pixel. acquiring an image of a fluorescent microscope slide at a first exposure level resulting in a first acquired image at a first contrast level; acquiring at least one additional image of said fluorescent microscope slide each at an exposure level different from each other and different from the first exposure, resulting in different acquired images at different contrast levels; and characterized by : forming a composite image of said fluorescent microscope slide by forming a weighted sum of the intensity values of corresponding pixels of each of said images, whereby said composite image has a composite contrast level over the entire composite image that represents a weighted average of said contrast levels, wherein the weight given to each of said pixels of each of said images is calculated from a localized contrast measure around that pixel.
An alkylated N-phenyl-α-naphthylamine composition comprising: at least 95% by weight, based on the total weight of unsubstituted and substituted N-phenyl-α-naphthylamine in the composition, of a mixture of (a) an isomeric mixture of mono-alkylated N-phenyl-α-naphthylamine represented by formula I where R 1 represents branched alkyl derived from a mixture of alkene isomers chosen from propylene trimer, propylene tetramer and propylene pentamer, and (b) at least one mono-alkylated N-phenyl-α-naphthylamine represented by formula II where R 2 is a group of formula III not derived from a mixture of alkene isomers chosen from propylene trimer, propylene tetramer and propylene pentamer, or is a group of formula IV where R 3 is a straight-chain or branched C 1-12 alkyl, and R 4 is H or a straight-chain or branched C 1-12 alkyl; and less than 1% by weight of unsubstituted N-phenyl-α-naphthylamine, based on the total weight of unsubstituted and substituted N-phenyl-α-naphthylamine in the composition, wherein the composition is a liquid at ambient temperature. at least 95% by weight, based on the total weight of unsubstituted and substituted N-phenyl-α-naphthylamine in the composition, of a mixture of (a) an isomeric mixture of mono-alkylated N-phenyl-α-naphthylamine represented by formula I where R 1 represents branched alkyl derived from a mixture of alkene isomers chosen from propylene trimer, propylene tetramer and propylene pentamer, and (b) at least one mono-alkylated N-phenyl-α-naphthylamine represented by formula II where R 2 is a group of formula III not derived from a mixture of alkene isomers chosen from propylene trimer, propylene tetramer and propylene pentamer, or is a group of formula IV where R 3 is a straight-chain or branched C 1-12 alkyl, and R 4 is H or a straight-chain or branched C 1-12 alkyl; and (a) an isomeric mixture of mono-alkylated N-phenyl-α-naphthylamine represented by formula I where R 1 represents branched alkyl derived from a mixture of alkene isomers chosen from propylene trimer, propylene tetramer and propylene pentamer, and (b) at least one mono-alkylated N-phenyl-α-naphthylamine represented by formula II where R 2 is a group of formula III not derived from a mixture of alkene isomers chosen from propylene trimer, propylene tetramer and propylene pentamer, or is a group of formula IV where R 3 is a straight-chain or branched C 1-12 alkyl, and R 4 is H or a straight-chain or branched C 1-12 alkyl; and where R 2 is a group of formula III not derived from a mixture of alkene isomers chosen from propylene trimer, propylene tetramer and propylene pentamer, or is a group of formula IV where R 3 is a straight-chain or branched C 1-12 alkyl, and R 4 is H or a straight-chain or branched C 1-12 alkyl; and less than 1% by weight of unsubstituted N-phenyl-α-naphthylamine, based on the total weight of unsubstituted and substituted N-phenyl-α-naphthylamine in the composition, wherein the composition is a liquid at ambient temperature.
A method of producing switch pole parts with a vacuum switching chamber and an outer insulation sheath for medium and high-voltage switchgears, the outer insulation sheath being produced in a plastic injection moulding process, characterised in that the vacuum switching chamber is encapsulated at a pressure above 80 bar, and in that , before the plastic encapsulation of the component, the latter is encapsulated with a compensation layer to compensate different coefficients of thermal expansion, and in that , in order to achieve sufficient adhesive properties, an adhesion promoter is used in the region of at least one boundary layer between surfaces of adjacent layers, in that the boundary surfaces are doped by dipping, spraying, painting or plasma processes, so that correspondingly sufficient adhesion is provided at the boundary surfaces.
A system for performing an operation on a component of an engine, the component including a first side positioned within an interior of the engine, the system comprising: a first robotic arm defining a first distal end and including a first utility member positioned at the first distal end , the first robotic arm moveable to the interior of the engine to a location operably adjacent to the first side of the component ; and a second robotic arm defining a second distal end and including a second utility member positioned at the second distal end , the second robotic arm also moveable to the interior of the engine to facilitate the first and second utility members performing the operation on the component of the engine, wherein the operation is a drilling operation, and wherein the first utility member includes a laser drill configured for orientation towards the first side of the component , and characterized in that the second utility member includes a laser beam receiver . a first robotic arm defining a first distal end and including a first utility member positioned at the first distal end , the first robotic arm moveable to the interior of the engine to a location operably adjacent to the first side of the component ; and a second robotic arm defining a second distal end and including a second utility member positioned at the second distal end , the second robotic arm also moveable to the interior of the engine to facilitate the first and second utility members performing the operation on the component of the engine, wherein the operation is a drilling operation, and wherein the first utility member includes a laser drill configured for orientation towards the first side of the component , and characterized in that the second utility member includes a laser beam receiver .
A Conductive Bridge Random Access Memory (CBRAM) device comprising: an insulating electrolyte element sandwiched between a cation supply metal electrode and a bottom electrode , the conductivity σ of the cation provided by the cation supply electrode in the electrolyte element increases towards the bottom electrode , whereby the electrolyte element comprises a top layer of a first dielectric material stacked on a bottom layer of a second dielectric material , and the cation supply metal electrode comprises Cu or Ag, characterized in that the bottom electrode comprises or consists of tungsten and wherein the second dielectric material is crystalline tungsten oxide. an insulating electrolyte element sandwiched between a cation supply metal electrode and a bottom electrode , the conductivity σ of the cation provided by the cation supply electrode in the electrolyte element increases towards the bottom electrode , whereby the electrolyte element comprises a top layer of a first dielectric material stacked on a bottom layer of a second dielectric material , and the cation supply metal electrode comprises Cu or Ag, characterized in that the bottom electrode comprises or consists of tungsten and wherein the second dielectric material is crystalline tungsten oxide.
An aerosol delivery system comprising: a perforate membrane comprising a plurality of apertures ; a fluid reservoir in fluid communication with a first side of the perforate membrane; and actuation means configured to vibrate the perforate membrane to cause a liquid in the fluid reservoir during use to pass through at least some of the plurality of apertures and to be ejected as liquid droplets from a second side of the perforate membrane, wherein the plurality of apertures comprises a first array of apertures of a first configuration and a second array of apertures of a second configuration which is different to the first configuration, wherein the first array of apertures are grouped together in a first discrete region of the perforate membrane, and wherein the second array of apertures are grouped together in a second discrete region of the perforate membrane, and wherein the fluid reservoir comprises a first reservoir portion configured to supply a first liquid to the first discrete region, a second reservoir portion configured to supply a second liquid to the second discrete region, and at least one liquid barrier configured to separate the first and second reservoir portions, wherein the first liquid is delivered to the first array of apertures separately of the second liquid being delivered to the second array of apertures. a perforate membrane comprising a plurality of apertures ; a fluid reservoir in fluid communication with a first side of the perforate membrane; and actuation means configured to vibrate the perforate membrane to cause a liquid in the fluid reservoir during use to pass through at least some of the plurality of apertures and to be ejected as liquid droplets from a second side of the perforate membrane, wherein the plurality of apertures comprises a first array of apertures of a first configuration and a second array of apertures of a second configuration which is different to the first configuration, wherein the first array of apertures are grouped together in a first discrete region of the perforate membrane, and wherein the second array of apertures are grouped together in a second discrete region of the perforate membrane, and wherein the fluid reservoir comprises a first reservoir portion configured to supply a first liquid to the first discrete region, a second reservoir portion configured to supply a second liquid to the second discrete region, and at least one liquid barrier configured to separate the first and second reservoir portions, wherein the first liquid is delivered to the first array of apertures separately of the second liquid being delivered to the second array of apertures.
A bioreactor adapted for rotation, the bioreactor comprising: - an incubation chamber , the incubation chamber providing, in conjunction with a first semipermeable membrane (M1), a substantially closed confinement, - a reservoir comprising an aqueous liquid, the reservoir comprising a second semipermeable membrane (M2) arranged in fluid contact with the aqueous liquid, said membrane (M2) further being selected to promote evaporation of the aqueous liquid into a conduction means , and - conduction means providing a substantially enclosed conduit from the first semipermeable membrane (M1) to the second semipermeable membrane (M2), said conduction means provided with ventilation means for enhancing gas exchange with the atmosphere surrounding the bioreactor, wherein said first semipermeable membrane (M1) is permeable to oxygen and carbon dioxide so as to facilitate aeration of the incubation chamber and the second semipermeable membrane (M2) is selected to promote evaporation of the aqueous liquid from the reservoir into a conduction means . - an incubation chamber , the incubation chamber providing, in conjunction with a first semipermeable membrane (M1), a substantially closed confinement, - a reservoir comprising an aqueous liquid, the reservoir comprising a second semipermeable membrane (M2) arranged in fluid contact with the aqueous liquid, said membrane (M2) further being selected to promote evaporation of the aqueous liquid into a conduction means , and - conduction means providing a substantially enclosed conduit from the first semipermeable membrane (M1) to the second semipermeable membrane (M2), said conduction means provided with ventilation means for enhancing gas exchange with the atmosphere surrounding the bioreactor,
Method of laser cutting of a self-contained cutting contour into a preferably plate-shaped workpiece by means of a laser beam and a cutting gas exiting from a cutting nozzle , characterized in that the distance (A) between the cutting nozzle and the workpiece surface is increased on or along a predetermined final path before the free cutting point (E) of a workpiece part that has been cut free by the cutting contour .
A metal plate used for manufacturing a deposition mask, the metal plate including a first surface and a second surface positioned on the opposite side of the first surface, and containing iron and nickel, the metal plate comprising: particles containing as a main component an element other than iron and nickel, the main component being an element having the highest weight% of elements contained in the particles, wherein: in a sample including the first surface and the second surface of the metal plate, the following conditions , and regarding the particles are satisfied: the number of the particles having an equivalent circle diameter of 1 μm or more is 50 or more and 3000 or less per 1 mm 3 in the sample; and the number of the particles having an equivalent circle diameter of 3 μm or more is 50 or less per 1 mm 3 in the sample, and the number of the particles having an equivalent circle diameter of 5 μm or more is 20 or less per 1 mm 3 in the sample, wherein the number of the particles per 1 mm 3 in the sample is determined as described in the description, and wherein a first ratio of the metal plate is 70% or more; the first ratio is a ratio of a first quantity to a total quantity; the total quantity is the number of the particles per 1 mm 3 in the sample, the particles having an equivalent circle diameter of 1 μm or more; and the first quantity is the number of the particles per 1 mm 3 in the sample, the particles having an equivalent circle diameter of 1 μm or more and less than 3 μm. in a sample including the first surface and the second surface of the metal plate, the following conditions , and regarding the particles are satisfied: the number of the particles having an equivalent circle diameter of 1 μm or more is 50 or more and 3000 or less per 1 mm 3 in the sample; and the number of the particles having an equivalent circle diameter of 3 μm or more is 50 or less per 1 mm 3 in the sample, and the number of the particles having an equivalent circle diameter of 5 μm or more is 20 or less per 1 mm 3 in the sample, wherein the number of the particles per 1 mm 3 in the sample is determined as described in the description, and wherein the number of the particles having an equivalent circle diameter of 1 μm or more is 50 or more and 3000 or less per 1 mm 3 in the sample; and the number of the particles having an equivalent circle diameter of 3 μm or more is 50 or less per 1 mm 3 in the sample, and the number of the particles having an equivalent circle diameter of 5 μm or more is 20 or less per 1 mm 3 in the sample, wherein a first ratio of the metal plate is 70% or more; the first ratio is a ratio of a first quantity to a total quantity; the total quantity is the number of the particles per 1 mm 3 in the sample, the particles having an equivalent circle diameter of 1 μm or more; and the first quantity is the number of the particles per 1 mm 3 in the sample, the particles having an equivalent circle diameter of 1 μm or more and less than 3 μm.