mhurhangee/ep-ind-claims huggingface dataset:
An aerosol generating device (10, 310) for heating an aerosol generating article (24, 124, 524) to generate an aerosol for inhalation by a user, the aerosol generating device comprising: an induction coil; a heating compartment arranged to receive an aerosol generating article; and a projecting element (34, 36, 534) which projects into the heating compartment so that at least part of the projecting element is positioned inside an aerosol generating article received, in use, in the heating compartment; wherein at least part of the projecting element is inductively heatable in the presence of a time varying electromagnetic field; characterised in that: the projecting element (34, 534) is removably mounted on the aerosol generating device; and the aerosol generating device further comprises a device body including a controller that is configured to detect the mounting of the projecting element (34, 534) on the aerosol generating device. an induction coil; a heating compartment arranged to receive an aerosol generating article; and a projecting element (34, 36, 534) which projects into the heating compartment so that at least part of the projecting element is positioned inside an aerosol generating article received, in use, in the heating compartment; wherein at least part of the projecting element is inductively heatable in the presence of a time varying electromagnetic field; characterised in that: the projecting element (34, 534) is removably mounted on the aerosol generating device; and the aerosol generating device further comprises a device body including a controller that is configured to detect the mounting of the projecting element (34, 534) on the aerosol generating device. the projecting element (34, 534) is removably mounted on the aerosol generating device; and the aerosol generating device further comprises a device body including a controller that is configured to detect the mounting of the projecting element (34, 534) on the aerosol generating device.
Packaging sleeve for medical purposes for storing sterile objects (25, 45) consisting of at least one outer sleeve which is open at one end and can be closed with a sealing closure, and in which an inner sleeve accommodating a sterile object is accommodated with a clamping effect, wherein the inner sleeve is accommodated in a clamping seating in a bottom-side receiving opening of the sealing closure of the outer sleeve, characterised in that the inner sleeve is sealed on its closed side by a conically narrowed base sleeve which penetrates into a receiving opening, which is open on the end-face side, of the sealing closure of the outer sleeve and increases the clamping seating present there so that the sealing ribs (7; 55, 56, 59) arranged on the outside circumference of the sealing closure are pressed against the inside of the outer sleeve in radial direction under increased contact pressure, (Figure 1).
A manufacturing method of an aramid cord, comprising at least a first treatment step of treating an untreated yarn for the aramid cord with a first treating agent comprising a rubber-modified epoxy resin and a rubber-unmodified epoxy resin, wherein the rubber-modified epoxy resin comprises a nitrile rubber-modified bisphenol-type epoxy resin, and the rubber-unmodified epoxy resin comprises a bisphenol F-type epoxy resin and a bisphenol A-type epoxy resin.
A method, comprising: receiving user preferences with respect to collecting usage data and behavior data of a user using a mobile device; collecting usage data of the user using the mobile device, including collecting information of user preferences related to consumption of multimedia content using the mobile device; collecting behavior data of the user, including collecting user activity information of interactions of the user with applications on the mobile device and correlating at least part of the user activity information with one or more selections of multimedia content via the mobile device; storing the usage data and behavior data on the mobile device; periodically sending the stored usage data and behavior data from the mobile device; monitoring at least one constraint of the mobile device, wherein the at least one constraint of the mobile device comprises at least one of battery usage, network speed or connection quality; requesting, by the mobile device, multimedia content based on the monitored at least one constraint; receiving multimedia content to precache on the mobile device for rendering via the mobile device based on the usage data and behavior data and based on the request; and presenting the multimedia content from the precache. receiving user preferences with respect to collecting usage data and behavior data of a user using a mobile device; collecting usage data of the user using the mobile device, including collecting information of user preferences related to consumption of multimedia content using the mobile device; collecting behavior data of the user, including collecting user activity information of interactions of the user with applications on the mobile device and correlating at least part of the user activity information with one or more selections of multimedia content via the mobile device; storing the usage data and behavior data on the mobile device; periodically sending the stored usage data and behavior data from the mobile device; monitoring at least one constraint of the mobile device, wherein the at least one constraint of the mobile device comprises at least one of battery usage, network speed or connection quality; requesting, by the mobile device, multimedia content based on the monitored at least one constraint; receiving multimedia content to precache on the mobile device for rendering via the mobile device based on the usage data and behavior data and based on the request; and presenting the multimedia content from the precache.
A method of delivering a protein component of an RNA-guided endonuclease (RGEN) into a microbial cell, said method comprising: contacting the microbial cell with a composition comprising the protein component of the RNA-guided endonuclease (RGEN) and at least one cell-penetrating peptide, wherein said protein component and CPP are covalently, or non-covalently, linked to each other in an RGEN protein-CPP complex, and wherein the composition further comprises at least one RNA component that is associated with the protein component of the RGEN, wherein the RNA component comprises a sequence complementary to a target site sequence on a chromosome or episome in the cell, wherein the RGEN can bind to the target site sequence, and optionally cleave one or both DNA strands at the target site sequence, wherein said RGEN protein-CPP complex traverses (i) a cell membrane, or (ii) a cell wall and cell membrane, of the cell, thereby entering the microbial cell. contacting the microbial cell with a composition comprising the protein component of the RNA-guided endonuclease (RGEN) and at least one cell-penetrating peptide, wherein said protein component and CPP are covalently, or non-covalently, linked to each other in an RGEN protein-CPP complex, and wherein the composition further comprises at least one RNA component that is associated with the protein component of the RGEN, wherein the RNA component comprises a sequence complementary to a target site sequence on a chromosome or episome in the cell, wherein the RGEN can bind to the target site sequence, and optionally cleave one or both DNA strands at the target site sequence, wherein said RGEN protein-CPP complex traverses (i) a cell membrane, or (ii) a cell wall and cell membrane, of the cell, thereby entering the microbial cell.
A process for laser beam welding of nitride steel components, comprising: relatively arranging two steel components (206a, 206b) to form a joint that is to be welded, at least one of the two steel components (206a, 206b) being a nitride steel component; using a laser beam, irradiating the two steel components (206a, 206b) along the joint so as to heat material within each of the two steel components (206a, 206b) to a welding temperature and thereby form a weld pool in the joint; and introducing titanium into a leading edge of the weld pool, the leading edge of the weld pool being in front of the laser beam along a welding direction, wherein the introduced titanium combines with nitrogen that is released into the weld pool from the nitride steel component to form titanium nitride within the weld pool at the welding temperature. relatively arranging two steel components (206a, 206b) to form a joint that is to be welded, at least one of the two steel components (206a, 206b) being a nitride steel component; using a laser beam, irradiating the two steel components (206a, 206b) along the joint so as to heat material within each of the two steel components (206a, 206b) to a welding temperature and thereby form a weld pool in the joint; and introducing titanium into a leading edge of the weld pool, the leading edge of the weld pool being in front of the laser beam along a welding direction, wherein the introduced titanium combines with nitrogen that is released into the weld pool from the nitride steel component to form titanium nitride within the weld pool at the welding temperature.
A method of manufacture of a package, comprising: providing a substrate having a contact surface and a notch extending into the substrate around the contact surface, wherein the notch has an inner edge adjacent to the contact surface; providing a mold having a protection flange, wherein the mold is shaped to form package walls, wherein the package walls have an inner surface extending into the notch, wherein and the inner surface is at an angle of 25° to 90° to the contact surface, and wherein the inner edge of the notch and the contact surface being spaced from the inner surface; placing the substrate in the mold with the protection flange extending into the notch; and filling the mold with molding compound, the protection flange impeding the flow of the molding compound to the contact surface. providing a substrate having a contact surface and a notch extending into the substrate around the contact surface, wherein the notch has an inner edge adjacent to the contact surface; providing a mold having a protection flange, wherein the mold is shaped to form package walls, wherein the package walls have an inner surface extending into the notch, wherein and the inner surface is at an angle of 25° to 90° to the contact surface, and wherein the inner edge of the notch and the contact surface being spaced from the inner surface; placing the substrate in the mold with the protection flange extending into the notch; and filling the mold with molding compound, the protection flange impeding the flow of the molding compound to the contact surface.
An integrated propulsion and warhead system for an artillery round, the integrated propulsion and warhead system comprising: a propulsion system; and an annular explosive concentrically arranged around at least a portion of the propulsion system, wherein the propulsion system includes an air-breathing jet engine.
A bottom hole assembly for a drill string, comprising: a mud motor disposed on the drill string and having a rotor and a stator, the rotor defining a first bore; a mandrel disposed downhole from the mud motor and defining a second bore; a shaft defining a third bore and having first and second ends (134a-b), the first end coupled to the rotor with a first universal joint, the second end coupled to the mandrel with a second universal joint; and characterised by an inner beam disposed in the third bore of the shaft, the inner beam having an internal passage and having third and fourth ends, the third end sealing communication of the internal passage with the first bore of the rotor, the fourth end sealing communication of the internal passage with the second bore of the mandrel. a mud motor disposed on the drill string and having a rotor and a stator, the rotor defining a first bore; a mandrel disposed downhole from the mud motor and defining a second bore; a shaft defining a third bore and having first and second ends (134a-b), the first end coupled to the rotor with a first universal joint, the second end coupled to the mandrel with a second universal joint; and characterised by an inner beam disposed in the third bore of the shaft, the inner beam having an internal passage and having third and fourth ends, the third end sealing communication of the internal passage with the first bore of the rotor, the fourth end sealing communication of the internal passage with the second bore of the mandrel.
A method for controlling the transmission of response messages, generated by at least one slave device (OEj) belonging to a first multiplexed communication network of the LIN type and managed by a management device, to a second multiplexed communication network and only being able to receive frames resulting from a segmentation of a response message when they are separated by a minimum duration, characterized in that it includes a step in which, each time a slave device (OEj) has to transmit a segment of a response message, said management device transmits to it at a selected instant a leader of a frame, designated conditional, so that it completes it with this segment and transmits to it a completed conditional frame during a time slot dedicated thereto, and which allows said minimum duration to be observed, then said management device transmits immediately to said second communication network this completed conditional frame, and so on until all the segments of said response message have been transmitted to said second communication network in successive completed conditional frames.
System for preparing a frozen confection comprising a device and a container designed for being inserted into a the device, said container comprising a sealed flexible casing and said container containing ingredients for producing a frozen confection when being cooled and mechanically forced, characterised in that the ingredients provide a single portion of frozen confection comprising 80ml to 200ml and in that it comprises bars for attaching the container to respective holes within the device for preparing a frozen confection and/or perforations for attaching the container to respective pins at the device for preparing a frozen confection.
A gas exchange analysis sensor head apparatus comprising: an active flow splitting device having a first output port and a second output port, the active flow splitting device configured to variably split an incoming gas flow between the first and second output ports; a sample chamber having an inlet and an outlet, the inlet coupled with the first output port of the active flow splitting device; a first gas analyzer coupled with the outlet of the sample chamber and configured to measure a concentration of a gas; a second gas analyzer coupled with the second output port of the active flow splitting device and configured to measure a concentration of said gas; a flow meter coupled between the first output port of the active flow splitting device and the inlet of the sample chamber or between the second output port of the active flow splitting device and the second gas analyzer, the flow meter configured to measure a flow rate; and the sensor head further including a a feedback control circuit adapted to control the active flow splitting device to adjust the ratio of the incoming gas flow to the first and second output ports responsive to a flow rate signal from the flow meter. an active flow splitting device having a first output port and a second output port, the active flow splitting device configured to variably split an incoming gas flow between the first and second output ports; a sample chamber having an inlet and an outlet, the inlet coupled with the first output port of the active flow splitting device; a first gas analyzer coupled with the outlet of the sample chamber and configured to measure a concentration of a gas; a second gas analyzer coupled with the second output port of the active flow splitting device and configured to measure a concentration of said gas; a flow meter coupled between the first output port of the active flow splitting device and the inlet of the sample chamber or between the second output port of the active flow splitting device and the second gas analyzer, the flow meter configured to measure a flow rate; and the sensor head further including a a feedback control circuit adapted to control the active flow splitting device to adjust the ratio of the incoming gas flow to the first and second output ports responsive to a flow rate signal from the flow meter.
A drive mechanism for use in a drug delivery device, the drive mechanism comprising an assembly with a housing having a proximal end and a distal end and a friction wheel, the drive mechanism further comprising: a drive member located within the said housing such that the drive member is movable longitudinally and is non-rotatable with respect to the housing; a piston rod that is non-rotatable with respect to the housing and is adapted to operate through the housing and to transfer a force in the longitudinal direction to the distal end of the drug delivery device; the rotating friction wheel releasably engaged with the piston rod and engaged to a linear bearing surface on the drive member and engaged to a linear bearing surface on the housing, wherein, a) when the drive member moves proximally with respect to the housing the friction wheel moves proximally with respect to the piston rod; and b) when the drive member moves distally the friction wheel moves distally displacing the piston rod towards the distal end of the device. a drive member located within the said housing such that the drive member is movable longitudinally and is non-rotatable with respect to the housing; a piston rod that is non-rotatable with respect to the housing and is adapted to operate through the housing and to transfer a force in the longitudinal direction to the distal end of the drug delivery device; the rotating friction wheel releasably engaged with the piston rod and engaged to a linear bearing surface on the drive member and engaged to a linear bearing surface on the housing, wherein, a) when the drive member moves proximally with respect to the housing the friction wheel moves proximally with respect to the piston rod; and b) when the drive member moves distally the friction wheel moves distally displacing the piston rod towards the distal end of the device. a) when the drive member moves proximally with respect to the housing the friction wheel moves proximally with respect to the piston rod; and b) when the drive member moves distally the friction wheel moves distally displacing the piston rod towards the distal end of the device.
An arrangement for a power semiconductor switch ( Q 1) in which a first current between a first electrode ( e) and a second electrode ( c) is configured to be controlled on the basis of a control voltage between a third electrode ( g) and the first electrode ( e), wherein the arrangement comprises an inductance ( L 1) connected in series with the power semiconductor switch, wherein a first end of the inductance ( L 1) is connected to the first electrode ( e), first measuring means (11; 34) for generating a first measurement voltage on the basis of the inductance's first end voltage with respect to a reference potential, wherein the first measuring means have a first gain and a first offset, second measuring means (12; 35) for generating a second measurement voltage on the basis of the inductance's ( L 1) second end voltage with respect to the reference potential, wherein the second measuring means have a second gain that differs from the first gain and a second offset that differs from the first offset, a comparator (13; 36) for comparing the first measurement voltage with the second measurement voltage, and driver means (14; 31) for generating the control voltage, the driver means (14; 31) being configured to generate a first control voltage level and a second voltage level of the control voltage, wherein the driver means (14; 31) are coupled to the reference potential in such a manner that, during use, the first and second voltage levels generate different first electrode voltages with respect to the reference potential, and wherein the first gain, the second gain, the first offset, and the second offset have been selected such that, during use, a change of the control voltage from one level to the other causes a voltage difference between the first and the second measurement voltage to change its sign so that the comparator indicates when the level of the control signal changes and when a magnitude of the rate of change of the first current exceeds a set limit, and wherein the first gain, the second gain, the first offset, and the second offset are selected such that, in operation, a change in the rate of change of the first current flowing through the inductance ( L 1) induces a change in a voltage difference between the first measurement voltage and the second measurement voltage, and if the magnitude of the rate of change at turn-on and at turn-off of the switching semiconductor power switch exceeds the set limit, the voltage difference changes polarity and the comparator (13; 36) changes its state.
Adhesive strip, tacky on one or both sides, comprising at least one layer of pressure-sensitive adhesive, where the adhesive strip has a pull tab region with which the adhesive strip is redetachable by extensive, stretching pulling in the direction of the bond plane, the adhesive strip being provided in the pull tab region on one side or on both sides with a pull tab layer, characterized in that at least one pull tab layer has a layer thickness of at most 50 μm, more particularly between 10 and 40 μm, and on at least one side, more particularly on both sides, has a roughness S a of 0.10 to 2.00 μm, more particularly of 0.15 to 0.8 μm, determined in each case according to ISO 25178-602, and in that the release force of the pull tab layer from the layer of pressure-sensitive adhesive is at least 1 N/cm, more particularly at least 3 N/cm, determined in each case according to ASTM D3330/D3330M - 04/ Test Method D, with the rough side of the pull tab layer located on the side of the layer of pressure-sensitive adhesive, and in that at least one of the at least one layer of pressure-sensitive adhesive comprises at least one elastomer component of butadiene-vinylaromatic block copolymer type, where the at least one elastomer component consists to an extent of at least 90 wt%, based on the overall block copolymer content, of at least one polybutadiene-vinylaromatic block copolymer, where the at least one polybutadiene-vinylaromatic block copolymer comprises polymer blocks formed predominantly by polymerization of vinylaromatics (A blocks), preferably styrene, and those formed predominantly by polymerization of 1,3-butadiene (B blocks).
A cutting element, comprising: a substrate comprising a longitudinal side surface and a coupling surface at the end of the substrate, the coupling surface configured to be coupled to a cutter pocket; and a plurality of cutter indexes formed on at least a portion of the coupling surface; wherein the plurality of cutter indexes are substantially equally spaced apart, the coupling surface being precisely orientable within the cutter pocket. a substrate comprising a longitudinal side surface and a coupling surface at the end of the substrate, the coupling surface configured to be coupled to a cutter pocket; and a plurality of cutter indexes formed on at least a portion of the coupling surface;