mhurhangee/patent-ind-claim-en huggingface dataset:
An embolic protection device for removing emboli from a blood vessel in a patient's body, comprising: an elongate host element ; an embolic protection element having a collapsed configuration and an expanded configuration; and a flexible tether connected to a distal end of the host element and to a proximal portion of the embolic protection element, the tether allowing the host element to move axially and laterally relative to the embolic protection element over a limited range of motion when the embolic protection element is in an expanded configuration, and the embolic protection device having a landing zone 30A,30B,30C) of 4 cm or less, wherein the embolic protection element comprises one or more connecting arms , an apposition ring , and a filtering mesh 39A,39B,39C,59) having a shape in the expanded configuration which defines an interior portion having a proximal facing opening, the one or more connecting arms each being connected to the tether and the apposition ring, and the apposition ring being connected to the mesh; and wherein in the expanded configuration of the embolic protection element, the apposition ring has a maximum diameter and the maximum diameter of the mesh is greater than the maximum diameter of the apposition ring. an elongate host element ; an embolic protection element having a collapsed configuration and an expanded configuration; and a flexible tether connected to a distal end of the host element and to a proximal portion of the embolic protection element, the tether allowing the host element to move axially and laterally relative to the embolic protection element over a limited range of motion when the embolic protection element is in an expanded configuration, and the embolic protection device having a landing zone 30A,30B,30C) of 4 cm or less, wherein the embolic protection element comprises one or more connecting arms , an apposition ring , and a filtering mesh 39A,39B,39C,59) having a shape in the expanded configuration which defines an interior portion having a proximal facing opening, the one or more connecting arms each being connected to the tether and the apposition ring, and the apposition ring being connected to the mesh; and wherein in the expanded configuration of the embolic protection element, the apposition ring has a maximum diameter and the maximum diameter of the mesh is greater than the maximum diameter of the apposition ring.
A computer-implemented verification method comprising, at a first wireless device : based on detecting proximity of a second wireless device , receiving information from the second wireless device , the information comprising data stored on the second wireless device ; generating a hash value based on the received information; generating a recommendation request including the hash value and a subset or portions of the received information; encrypting the recommendation request with a trusted authority's public key, or with a symmetric key shared by the first device and the trusted authority ; sending the encrypted recommendation request to the trusted authority ; receiving a response to the recommendation request, the response including a recommendation of the trusted authority whether to trust the second wireless device , the recommendation comprising a percentage reliability of the second wireless device and being based on the information contained in the recommendation request; and deciding whether to trust the second wireless device by comparing the percentage reliability to a threshold value and acting accordingly, whereby the information received is discarded or ignored if it is decided that the second wireless device is not to be trusted. based on detecting proximity of a second wireless device , receiving information from the second wireless device , the information comprising data stored on the second wireless device ; generating a hash value based on the received information; generating a recommendation request including the hash value and a subset or portions of the received information; encrypting the recommendation request with a trusted authority's public key, or with a symmetric key shared by the first device and the trusted authority ; sending the encrypted recommendation request to the trusted authority ; receiving a response to the recommendation request, the response including a recommendation of the trusted authority whether to trust the second wireless device , the recommendation comprising a percentage reliability of the second wireless device and being based on the information contained in the recommendation request; and deciding whether to trust the second wireless device by comparing the percentage reliability to a threshold value and acting accordingly, whereby the information received is discarded or ignored if it is decided that the second wireless device is not to be trusted.
A painting robot configured to discharge paint from nozzles towards a painting object to perform painting, the painting robot comprising: a nozzle head comprising a plurality of the nozzles and discharging the paint from the nozzles by a driving of a piezoelectric substrate ; a power supplier for supplying power for driving the piezoelectric substrate ; and a robot arm (R1) with a front end to which the nozzle head can be mounted and moving the mounted nozzle head , wherein the nozzle head is provided, in a state in which a nozzle discharging surface is exposed to the outside, within an explosion-proof housing that covers portions other than the nozzle discharging surface , a heat-release unit releasing heat generated from the nozzle head is mounted, within the explosion-proof housing , to the nozzle head , and a temperature measuring unit measuring a temperature of the heat-release unit is mounted, within the explosion-proof housing , to the heat-release unit , wherein the painting robot is provided with a power cut-off device which, in response to the temperature measuring unit detecting that a predetermined temperature has been reached, cuts off a power supply from the power supplier to the piezoelectric substrate based on a detection signal from the temperature measuring unit . a nozzle head comprising a plurality of the nozzles and discharging the paint from the nozzles by a driving of a piezoelectric substrate ; a power supplier for supplying power for driving the piezoelectric substrate ; and a robot arm (R1) with a front end to which the nozzle head can be mounted and moving the mounted nozzle head , wherein the nozzle head is provided, in a state in which a nozzle discharging surface is exposed to the outside, within an explosion-proof housing that covers portions other than the nozzle discharging surface , a heat-release unit releasing heat generated from the nozzle head is mounted, within the explosion-proof housing , to the nozzle head , and a temperature measuring unit measuring a temperature of the heat-release unit is mounted, within the explosion-proof housing , to the heat-release unit , wherein the painting robot is provided with a power cut-off device which, in response to the temperature measuring unit detecting that a predetermined temperature has been reached, cuts off a power supply from the power supplier to the piezoelectric substrate based on a detection signal from the temperature measuring unit .
Method for generating a model of a technical system which can be executed on a test device , wherein the test device and the executable model are designed for real-time testing of a control device connected to the test device, and wherein the executable model is constructed from a plurality of executable sub-models which communicate with one another, each of the executable submodels having a separate address space and/or being executed on a separate processor or separate processor core when a test of a control unit connected to the test unit is performed, characterized in that the method comprises the following steps, which are executed after compiling high-level language submodels into the executable submodels: (a) for each of the plurality of executable submodels, identifying communication properties of the respective executable submodel, wherein the step of identifying the communication properties of the respective executable submodel includes analyzing a metafile associated with the respective executable submodel , (b) accessing communication definitions for communication between the executable submodels, (c) configuring communication interfaces of the plurality of executable submodels based on the communication properties for communication between the executable submodels, (d) establishing at least one real-time capable communication link between the executable submodels based on the communication characteristics of the executable submodels and the communication definitions for the communication between the executable submodels. (a) for each of the plurality of executable submodels, identifying communication properties of the respective executable submodel, wherein the step of identifying the communication properties of the respective executable submodel includes analyzing a metafile associated with the respective executable submodel , (b) accessing communication definitions for communication between the executable submodels, (c) configuring communication interfaces of the plurality of executable submodels based on the communication properties for communication between the executable submodels, (d) establishing at least one real-time capable communication link between the executable submodels based on the communication characteristics of the executable submodels and the communication definitions for the communication between the executable submodels.
A method for performing, by a first apparatus, wireless communication, the method comprising: determining (S1710) a number of resource elements, REs, allocated for a physical sidelink shared channel, PSSCH, within one slot and one physical resource block, PRB; determining (S1720) a transport block size, TBS, based on the number of REs; and based on the TBS, performing sidelink, SL, transmission to a second apparatus, wherein the number of REs, N' RE , is determined based on the following equation, N ′ RE = N RB sc ⋅ N sh symb − 2 − N DMRS − N Oh wherein the N RB sc is 12, the N sh symb is a number of SL symbols within the one slot, the N DMRS is a number of REs related to demodulation reference signal, DMRS, and the N Oh is an overhead configured by a higher layer parameter. determining (S1710) a number of resource elements, REs, allocated for a physical sidelink shared channel, PSSCH, within one slot and one physical resource block, PRB; determining (S1720) a transport block size, TBS, based on the number of REs; and based on the TBS, performing sidelink, SL, transmission to a second apparatus, wherein the number of REs, N' RE , is determined based on the following equation, N ′ RE = N RB sc ⋅ N sh symb − 2 − N DMRS − N Oh wherein the N RB sc is 12, the N sh symb is a number of SL symbols within the one slot, the N DMRS is a number of REs related to demodulation reference signal, DMRS, and the N Oh is an overhead configured by a higher layer parameter.
An amine polymer or a salt thereof comprising a first amine, wherein the first amine is linked to pyrimidine-2,4-diamine or an analog thereof.
A supercharged air cooling unit (X1), comprising: an air supply conduit for allowing supercharged air being supplied from a supercharger to an engine to flow therethrough; an energy recovery device including a first cooling section for allowing working fluid to be subjected to heat exchange with the supercharged air flowing through the air supply conduit to pass therethrough, an expander for receiving the working fluid vaporized in the first cooling section and flowing therefrom, and a power obtaining section for obtaining a power generated by the expander ; and a cooling device including a second cooling section for allowing cooling medium to be subjected to heat exchange with the supercharged air flowing through the air supply conduit to pass therethrough; characterized in that the cooling device further includes a single casing accommodating the air supply conduit , the first cooling section , and the second cooling section , wherein the air supply conduit , the first cooling section , the second cooling section , and the casing constitute a cooler . an air supply conduit for allowing supercharged air being supplied from a supercharger to an engine to flow therethrough; an energy recovery device including a first cooling section for allowing working fluid to be subjected to heat exchange with the supercharged air flowing through the air supply conduit to pass therethrough, an expander for receiving the working fluid vaporized in the first cooling section and flowing therefrom, and a power obtaining section for obtaining a power generated by the expander ; and a first cooling section for allowing working fluid to be subjected to heat exchange with the supercharged air flowing through the air supply conduit to pass therethrough, an expander for receiving the working fluid vaporized in the first cooling section and flowing therefrom, and a power obtaining section for obtaining a power generated by the expander ; and a cooling device including a second cooling section for allowing cooling medium to be subjected to heat exchange with the supercharged air flowing through the air supply conduit to pass therethrough; characterized in that the cooling device further includes a single casing accommodating the air supply conduit , the first cooling section , and the second cooling section , wherein the air supply conduit , the first cooling section , the second cooling section , and the casing constitute a cooler .
A process for preparation of Ibrutinib, compound of Formula 1, or a salt thereof, the process comprising: a. Reacting compound of formula with compound of formula in a presence of Lewis acid to provide compound of Formula , b. Contacting compound of Formula with toluene; c. Isolate a solid form of compound of formula from toluene; d. Transforming compound of Formula into Ibrutinib. a. Reacting compound of formula with compound of formula in a presence of Lewis acid to provide compound of Formula , b. Contacting compound of Formula with toluene; c. Isolate a solid form of compound of formula from toluene; d. Transforming compound of Formula into Ibrutinib.
A method implemented by a first Radio Network Controller (RNC) characterized by : determining a communication link delay of an lub interface between the first RNC and a base station supported by the first RNC; subsequent to the determining , receiving a request from a different, second RNC to add a call leg that includes the base station for a call supported by the second RNC; and based on the request , transmitting a response to the second RNC that indicates the determined communication link delay. determining a communication link delay of an lub interface between the first RNC and a base station supported by the first RNC; subsequent to the determining , receiving a request from a different, second RNC to add a call leg that includes the base station for a call supported by the second RNC; and based on the request , transmitting a response to the second RNC that indicates the determined communication link delay.
A starter system for a vehicle , said starter system comprising: a starter means functionally connected to a crankshaft of a power unit of said vehicle ; a power source electrically coupled to said starter means for driving said starter means ; and a starter control unit having means (M1-M6, 210F) for controlling the rotation speed of the starter means and having means for calculating a first parameter, which includes at least one of an engine speed, a rotational speed of crankshaft or a rotational speed of one of more rotating members connected to said crankshaft , wherein said starter control unit , during an initial attempt to start the engine, is trying to crank said power unit through said starter means , whose rotational speed is increased up to a first speed, said starter control unit checks, based on at least the first parameter of said power unit , whether the power unit has started or not, and, during a first attempt to start the engine after the initial attempt is unsuccessful, said starter control unit is trying to crank said power unit through said starter means , whose rotational speed is increased up to a second speed, said starter control unit being characterized in that said second speed is greater than said first speed. a starter means functionally connected to a crankshaft of a power unit of said vehicle ; a power source electrically coupled to said starter means for driving said starter means ; and a starter control unit having means (M1-M6, 210F) for controlling the rotation speed of the starter means and having means for calculating a first parameter, which includes at least one of an engine speed, a rotational speed of crankshaft or a rotational speed of one of more rotating members connected to said crankshaft , wherein said starter control unit , during an initial attempt to start the engine, is trying to crank said power unit through said starter means , whose rotational speed is increased up to a first speed, said starter control unit checks, based on at least the first parameter of said power unit , whether the power unit has started or not, and, during a first attempt to start the engine after the initial attempt is unsuccessful, said starter control unit is trying to crank said power unit through said starter means , whose rotational speed is increased up to a second speed, said starter control unit being characterized in that said second speed is greater than said first speed.
A material comprising: a collection of matter; and a binder disposed on the matter; wherein: - the material is formaldehyde free; - the binder consists of (i) at least two Maillard reactants and (ii) a silicon-containing compound; and - the collection of matter includes glass fibers. - the material is formaldehyde free; - the binder consists of (i) at least two Maillard reactants and (ii) a silicon-containing compound; and - the collection of matter includes glass fibers.
A non-naturally occurring microbial organism having a 1,3-butanediol (1,3-BDO) pathway, wherein said microbial organism comprises at least one exogenous nucleic acid encoding a ketone-reducing acetoacetyl-CoA reductase expressed in a sufficient amount to produce 1,3-BDO; and wherein said 1,3-BDO pathway comprises a ketone-reducing acetoacetyl-CoA reductase, an aldehyde forming 3-hydroxybutyryl-CoA reductase, and a 3-hydroxybutyraldehyde reductase.
A metal hydride hydrogen storage arrangement suitable for use as a counterweight in a fuel cell utility vehicle, the storage arrangement including: a plurality of metal hydride containers filled with a metal hydride material, the containers being connectable in parallel to a gas manifold , wherein the metal hydride material has a hydrogen equilibrium pressure in excess of 100 kPa at a temperature of between 50 °C and 60 °C; heating and cooling means located between the metal hydride containers ; and a filler body formed by the melting and solidification of a metal or an alloy in a space between the metal hydride containers and the heating and cooling means , wherein the filler body adjoins the surfaces of the heating and cooling means and the metal hydride containers to enable heat exchange between the metal hydride containers and the heating and cooling means . a plurality of metal hydride containers filled with a metal hydride material, the containers being connectable in parallel to a gas manifold , wherein the metal hydride material has a hydrogen equilibrium pressure in excess of 100 kPa at a temperature of between 50 °C and 60 °C; heating and cooling means located between the metal hydride containers ; and a filler body formed by the melting and solidification of a metal or an alloy in a space between the metal hydride containers and the heating and cooling means , wherein the filler body adjoins the surfaces of the heating and cooling means and the metal hydride containers to enable heat exchange between the metal hydride containers and the heating and cooling means .
A method of operating a light assembly being a headlight assembly or a taillight assembly; the light assembly comprising a housing , the housing having a rear and a front, whereby in use light is emitted from the front of the housing ; the assembly further comprising a transparent or translucent light guide extending from the rear to the front and at least partially surrounded by the housing ; the light guide arranged to be lit at its rear and provided with formations , on/in its interior surface and exterior surface to emit light along at least part of its length and being tubular, having an interior surface, an exterior surface, a front end, a rear end, and a passage extending therebetween; and a light source arranged at the rear of the light guide ; characterised in that the method comprising gradually increasing the intensity of light supplied by the light source , such that light appears to slowly progress along the length of the light guide by a majority of the light emitted from the light source is output through the formations , on/in the interior surface near the rear, where the light source is located, wherein the tubular light guide has a flared portion which interior surface is visible from outside of the light assembly .
Deep-drawing apparatus for deep drawing a continuously fed film web , comprising a conveyor , which revolves continuously around a stationary machine frame , has format plates , and has mould impressions located in the format plates , further comprising a cyclically synchronized moulding station , which runs along with the conveyor from a start position to an end position and runs back from there to the start position , wherein the individual format plates can be connected in sequence firstly to a moulding-vacuum device and then to a downstream holding-vacuum channel , characterized in that the moulding-vacuum device is part of the cyclically moved moulding station , and in that the holding-vacuum channel comprises two interlocking telescopic channel portions , wherein a first telescopic channel portion is part of the cyclically moved moulding station , and wherein a second telescopic channel portion is mounted positionally fixedly relative to the stationary machine frame .
Guide vane ring for a turbomachine, comprising a plurality of rotatable guide vanes , an inner ring for radially inner stabilization of the guide vanes , a seal for sealing a radial gap between the inner ring and an opposite rotor portion, and bearing bodies for supporting the guide vanes in the inner ring , characterized in that each guide vane is mounted in an individual bearing body having in each case a bearing hole for guiding a bearing journal of the relevant guide vane and the inner ring is composed of two half rings which are pushed onto the bearing bodies in the circumferential direction, in that the bearing bodies touch each other at the sides and have two opposite guide grooves that extend in the circumferential direction, and in that the half rings each have guide projections that extend in the circumferential direction and engage in the guide grooves .
A push button assembly for a cooking appliance , the push button assembly comprising: a button ; a button base coupled to the button thereby defining an interior ; a button support coupled to the button and disposed within the interior , the button support having a boss defining a channel ; a pin coupled with the button base and slidably received within the channel ; and a lever having a first end and second end , characterised in that the lever defines an aperture configured to receive the pin . a button ; a button base coupled to the button thereby defining an interior ; a button support coupled to the button and disposed within the interior , the button support having a boss defining a channel ; a pin coupled with the button base and slidably received within the channel ; and a lever having a first end and second end , characterised in that the lever defines an aperture configured to receive the pin .