mhurhangee/ep-ind-claims huggingface dataset:
Heat exchanger comprising a first fluid channel for a first fluid with a fluid inlet and a fluid outlet, and comprising a second fluid channel for a second fluid with a fluid inlet and a fluid outlet, wherein, downstream of its fluid inlet, the second fluid channel is branched into a first and second sub-channel (23, 24), wherein, upstream of the fluid outlet of the second fluid channel, the first and the second sub-channel (23, 24) are brought together to form a collecting channel which runs in a first section transversely to the first fluid channel and is arranged closer to the fluid inlet of the first fluid channel than the first sub-channel and the second sub-channel, wherein the first sub-channel runs in a second section transversely to the first fluid channel, and said second section is arranged closer to the fluid inlet of the first fluid channel than the second sub-channel, characterized in that the second fluid channel is formed inside a substantially areal first module, and in that the second sub-channel is delimited by regions, embossed in a herringbone-like manner, of a plate forming the first module or of plates (31, 32) forming the first module.
A polyol ester composition comprising a mixture of esters of (a) monopentaerythritol, (b) dipentaerythritol and (c) tri- and higher pentaerythritols with at least one monocarboxylic acid, wherein the weight ratio of the esters is 55 to 65% of the monopentaerythritol esters, 15 to 25% of the dipentaerythritol esters and 15 to 25% of the tri- and higher pentaerythritol esters; wherein the polyol ester composition has a kinematic viscosity at 40°C of 46 cSt to 68 cSt and a viscosity index in excess of 120 and wherein said at least one monocarboxylic acid comprises a mixture of iso-pentanoic acid, n-heptanoic acid and iso-nonanoic acid comprising from 1.75 to 2.25 moles of iso-pentanoic acid and 0.75 to 1.25 moles of n-heptanoic acid per mole of iso-nonanoic acid.
A composite container for storing product in a sealed volume, the container comprises: a fitment forming an end of the container and having an outer face, an inner face, and a perimeter edge having an attachment surface formed therein, the fitment including: an aperture extending between the outer face and the inner face and having an aperture mount, the aperture mount being configured to receive and secure a closure for sealing the aperture of the container; and a sealing surface formed into the inner face and surrounding the aperture; a products pouch with a pouch opening sealed to the sealing surface with a hermetic seal; and a can having a first end coupled to the attachment surface of the fitment and a substantially-rigid can body extending away from the fitment to form an interior volume that surrounds the products pouch; characterised in that the aperture mount is a circumferential surface substantially perpendicular to the center axis; and in that the products pouch is scored proximate the sealing surface to facilitate the separation of the products pouch from the fitment after use. an aperture extending between the outer face and the inner face and having an aperture mount, the aperture mount being configured to receive and secure a closure for sealing the aperture of the container; and a sealing surface formed into the inner face and surrounding the aperture; a products pouch with a pouch opening sealed to the sealing surface with a hermetic seal; and a can having a first end coupled to the attachment surface of the fitment and a substantially-rigid can body extending away from the fitment to form an interior volume that surrounds the products pouch; characterised in that the aperture mount is a circumferential surface substantially perpendicular to the center axis; and in that the products pouch is scored proximate the sealing surface to facilitate the separation of the products pouch from the fitment after use.
A method for fragmenting ions in an ion trap of a mass spectrometer, said method comprising: a) selecting parent ions for fragmentation; b) retaining the parent ions within the ion trap for a retention time interval, the ion trap having an operating pressure of less than about 1 x 10 -4 Torr; c) providing a RF trapping voltage to the ion trap to provide a Mathieu stability parameter q at an excitement level during an excitement time interval within the retention time interval; d) providing a resonant excitation voltage to the ion trap during the excitement time interval to excite and fragment the parent ions; e) providing a non-steady-state pressure increase of at least 10% of the operating pressure within the ion trap by delivering a neutral gas into the ion trap for at least a portion of the retention time interval to raise the pressure in the ion trap to a varying first elevated-pressure in the range between about 6 x 10 -5 Torr to about 5 x 10 -4 Torr for a first elevated-pressure duration; and, f) within the retention time interval and after the excitement time interval, terminating the resonant excitation voltage and changing the RF trapping voltage applied to the ion trap to reduce the Mathieu stability parameter q to a hold level less than the excitement level to retain fragments of the parent ions within the ion trap; wherein the excitation time interval and the first elevated-pressure duration substantially overlap in time; wherein the resonant excitation voltage is terminated substantially concurrently with the RF trapping voltage applied to the ion trap being changed to reduce the Mathieu stability parameter q to the hold level. a) selecting parent ions for fragmentation; b) retaining the parent ions within the ion trap for a retention time interval, the ion trap having an operating pressure of less than about 1 x 10 -4 Torr; c) providing a RF trapping voltage to the ion trap to provide a Mathieu stability parameter q at an excitement level during an excitement time interval within the retention time interval; d) providing a resonant excitation voltage to the ion trap during the excitement time interval to excite and fragment the parent ions; e) providing a non-steady-state pressure increase of at least 10% of the operating pressure within the ion trap by delivering a neutral gas into the ion trap for at least a portion of the retention time interval to raise the pressure in the ion trap to a varying first elevated-pressure in the range between about 6 x 10 -5 Torr to about 5 x 10 -4 Torr for a first elevated-pressure duration; and, f) within the retention time interval and after the excitement time interval, terminating the resonant excitation voltage and changing the RF trapping voltage applied to the ion trap to reduce the Mathieu stability parameter q to a hold level less than the excitement level to retain fragments of the parent ions within the ion trap;
Electronic shelf label for displaying information, said electronic shelf label comprising: a casing comprising a first side surface, a second side surface, an upper side and a lower side, a front side and a back side; an information display area arranged in the front side; a printed circuit board; and fastening means for fastening the electronic shelf label on a shelf, wherein the electronic shelf label is characterized in that it furthermore comprises a recess extending from one of the side surfaces and is formed in the back side of the electronic shelf label, wherein the recess comprises attaching means for attaching external information display devices (60; 70; 80) to the electronic shelf label, wherein the attaching means, arranged in the recess, comprises at least one locking surface for maintaining the external information device in the recess. a casing comprising a first side surface, a second side surface, an upper side and a lower side, a front side and a back side; an information display area arranged in the front side; a printed circuit board; and
Apparatus for preparation of a mineral foamed material, comprising a mortar pump and/or a mortar mixer with an automatic dispensing facility characterized in that the free cross-section of the flow path of the mortar is tapered in the area of the dispensing facility by two or more flat obstacles which are arranged on a central axial core or lance one after another along the flow direction of the mortar, and which have the form of curved plates with a V-shaped cross-section. wherein the tip of the V points upstream, whereas the two free ends of the legs point downstream, and wherein at least one connection for an active or passive air supply is provided in the area of a pipe surrounding the flat obstacles.
A base station comprising: a control unit configured to dynamically change an uplink/downlink configuration of a time division duplex, TDD, carrier from one configuration among multiple configurations to another configuration among the multiple configurations, and notify a terminal device of the changed uplink/downlink configuration and characterized by notifying in addition of an appropriate radio resource for device-to-device communication for the changed uplink/downlink configuration, wherein the control unit is configured to notify the terminal device of the appropriate radio resource for device-to-device communication for each of the multiple configurations, the appropriate radio resource of a respective configuration includes at least one uplink subframe and a period. a control unit configured to dynamically change an uplink/downlink configuration of a time division duplex, TDD, carrier from one configuration among multiple configurations to another configuration among the multiple configurations, and notify a terminal device of the changed uplink/downlink configuration and characterized by notifying in addition of an appropriate radio resource for device-to-device communication for the changed uplink/downlink configuration, wherein the control unit is configured to notify the terminal device of the appropriate radio resource for device-to-device communication for each of the multiple configurations, the appropriate radio resource of a respective configuration includes at least one uplink subframe and a period.
A camera crane tractor having a chassis, first and second treads supported on tread rollers on the chassis, and a motor for driving the first and second treads, characterized by: first and second spaced apart and parallel wheel decks on the chassis; at least one wheel guide strip on each of the wheel decks; first and second front wheel stops pivotally or removably attached at front ends of the first and second wheel decks, respectively; a first rear wheel stop at a rear end of the first wheel deck; and a second rear wheel stop at a rear end of the second wheel deck. first and second spaced apart and parallel wheel decks on the chassis; at least one wheel guide strip on each of the wheel decks; first and second front wheel stops pivotally or removably attached at front ends of the first and second wheel decks, respectively; a first rear wheel stop at a rear end of the first wheel deck; and a second rear wheel stop at a rear end of the second wheel deck.
A crosslinking agent comprising a compound represented by a formula, wherein A is a single bond, -O-, -S-, a heteroatom-containing group, a linear or a branched alkylene group, a cycloalkylene group, or an arylene group and these groups may be fluorinated partially or completely; R 1, R 2, and R 3 are independently a hydrogen atom, a fluorine atom, an alkyl group, a fluoroalkyl group, or a substituted or unsubstituted aryl group, a plurality of R 1 are identical to or different from each other, a plurality of R 2 are identical to or different from each other, a plurality of R 3 are identical to or different from each other, provided that at least one of R 1, R 2, and R 3 is a hydrogen atom, and at least one of R 1, R 2, and R 3 is a fluorine atom or a fluorine atom-containing group; n are independently an integer from 1 to 5; and when each n in the formula is 1, A and the group represented by -CR 1 =CR 2 R 3 are situated at meta positions, or para positions.
A mixing device comprising: a stirrer (22; 72) incorporating a magnet; a stirrer holding mechanism that specifies a position of the stirrer (22; 72) by exerting a magnetic force on the stirrer (22; 72) from lateral side; and a rotation mechanism that can rotate the stirrer holding mechanism, thereby rotating the stirrer (22; 72), characterized in that the stirrer (22; 72) includes a blade having a first acting surface that is widest and that generates rising flows in a liquid during rotation, and a second acting surface that is positioned adjacent to the first acting surface and that generates falling flows in the liquid during the rotation, the first acting surface defines a tapered shape gradually narrowing toward an upper end of the blade, and the second acting surface defines a tapered shape gradually narrowing toward a lower end of the blade in a direction facing an outer lateral surface thereof respectively, the stirrer (22; 72) has a cutout gradually spreading in an upper half thereof and a cutout formed in a lower half thereof. a stirrer (22; 72) incorporating a magnet; a stirrer holding mechanism that specifies a position of the stirrer (22; 72) by exerting a magnetic force on the stirrer (22; 72) from lateral side; and a rotation mechanism that can rotate the stirrer holding mechanism, thereby rotating the stirrer (22; 72), characterized in that the stirrer (22; 72) includes a blade having a first acting surface that is widest and that generates rising flows in a liquid during rotation, and a second acting surface that is positioned adjacent to the first acting surface and that generates falling flows in the liquid during the rotation, the first acting surface defines a tapered shape gradually narrowing toward an upper end of the blade, and the second acting surface defines a tapered shape gradually narrowing toward a lower end of the blade in a direction facing an outer lateral surface thereof respectively, the stirrer (22; 72) has a cutout gradually spreading in an upper half thereof and a cutout formed in a lower half thereof.
Method for arranging a camshaft in a camshaft module for the valve drive in an internal combustion engine, wherein the camshaft module comprises a module housing in which at least one camshaft is accommodated, wherein the camshaft comprises at least one displacement element with a carrier tube, with at least two cam elements for the valve actuation and with a switching element for the axial adjustment of the displacement element in the module housing, and wherein the cam elements and the switching element are attached to the carrier tube such that an interposed bearing section for the mounting of the displacement element in a bearing bridge of the module housing is formed, wherein the method comprises at least the following steps: - arranging the cam elements and the switching element on the carrier tube, with the bearing section being formed, so as to provide the displacement element outside the module housing; - cutting the carrier tube in the region of the bearing section into two parts (A, B) by way of a cutting method; - arranging a connecting sleeve on one of the two parts (A, B); - inserting one of the two parts (A, B) into the bearing bridge in the module housing, and - joining the further part (A, B) to the part (A, B) inserted into the bearing bridge. - arranging the cam elements and the switching element on the carrier tube, with the bearing section being formed, so as to provide the displacement element outside the module housing; - cutting the carrier tube in the region of the bearing section into two parts (A, B) by way of a cutting method; - arranging a connecting sleeve on one of the two parts (A, B); - inserting one of the two parts (A, B) into the bearing bridge in the module housing, and - joining the further part (A, B) to the part (A, B) inserted into the bearing bridge.
Projectile comprising a projectile casing having explosive contained therein, into which a projectile tip containing a detonator is inserted, wherein the projectile tip can be moved axially against a stop by a gas pressure building up inside the projectile relative to the projectile casing, while opening at least one venting duct connecting the inside of the projectile casing to the environment, wherein the projectile tip has an external thread onto which a first ring with an internal thread is screwed, which first ring has an external thread which is screwed into an internal thread of the projectile casing, and wherein a stop member is provided at the projectile tip which runs against the stop to limit the axial movement made possible by a pressure-induced shearing of the threaded connection of the ring to the projectile tip.
A biologically pure culture of Epicoccum purpurascens strain SVB-F1 on deposit at the National Measurement Institute, Australia under accession number V10/000331, deposited 18 March 2010, or an exudate obtained therefrom.
A diagnostic method for diagnosing a malfunction in a solenoid valve, wherein the solenoid valve comprises an electromagnet and a valve body wherein one or more orifices (14, 16, 18) are provided for the passage of a pressurized fluid and wherein the electromagnet comprises a solenoid, suitable to be connected to a constant voltage generator generating in the solenoid a solenoid current, and a magnetic circuit comprising a movable core situated and slidable in the solenoid, the method comprising the steps of: a) detecting, at the excitation of the solenoid, the rate of variation over time (dV/dt) of the supply voltage of the solenoid and comparing it with a predetermined value; b) if said variation rate is less than said predetermined value, generating an error signal, otherwise, c) detecting the characteristics of the waveform of the solenoid current over a time interval between the solenoid's moment of excitation and the moment wherein the movable core reaches the end-stroke position; d) comparing the characteristics of the waveform detected with predetermined threshold values; e) if the detected characteristics are less than said predetermined threshold values, generating an alarm signal, otherwise f) when the solenoid current is in steady state, calculating the value of solenoid resistance and comparing it with a predetermined minimum resistance value and with a predetermined maximum resistance value; g) if the value of the solenoid resistance is less than the predetermined minimum resistance value or greater than the predetermined maximum resistance value, generating an alarm signal. a) detecting, at the excitation of the solenoid, the rate of variation over time (dV/dt) of the supply voltage of the solenoid and comparing it with a predetermined value; b) if said variation rate is less than said predetermined value, generating an error signal, otherwise, c) detecting the characteristics of the waveform of the solenoid current over a time interval between the solenoid's moment of excitation and the moment wherein the movable core reaches the end-stroke position; d) comparing the characteristics of the waveform detected with predetermined threshold values; e) if the detected characteristics are less than said predetermined threshold values, generating an alarm signal, otherwise f) when the solenoid current is in steady state, calculating the value of solenoid resistance and comparing it with a predetermined minimum resistance value and with a predetermined maximum resistance value; g) if the value of the solenoid resistance is less than the predetermined minimum resistance value or greater than the predetermined maximum resistance value, generating an alarm signal.
A method for parsing one or more media files, according to ISO Base Media File Format, based on timed media data, the timed media data comprising samples (210, 220, 230, 240), the method comprising: obtaining tracks from the one or more media files, each of the tracks comprising at least a part of at least one of the samples (210, 220, 230, 240); obtaining, from the one or more media files, descriptive metadata associated with the obtained tracks; and obtaining, from the one or more media files, media data based on at least one of the obtained tracks and the descriptive metadata, wherein the descriptive metadata comprises at least one TrackGroupTypeBox including at least one track group identifier and describing at least one group of the obtained tracks by using the at least one track group identifier, wherein the descriptive metadata further comprises a plurality of sets of properties for the obtained tracks and a SampleToGroupBox characterised by including a grouping type parameter, and the descriptive metadata further comprises a set of properties which is among the plurality of sets of properties and is associated with one or more samples of one of the obtained tracks, wherein a value of the grouping type parameter is equal to the at least one track group identifier, and wherein the associated set of properties is applied to the one or more samples within a track group identified by the grouping type parameter. obtaining tracks from the one or more media files, each of the tracks comprising at least a part of at least one of the samples (210, 220, 230, 240); obtaining, from the one or more media files, descriptive metadata associated with the obtained tracks; and obtaining, from the one or more media files, media data based on at least one of the obtained tracks and the descriptive metadata, wherein the descriptive metadata comprises at least one TrackGroupTypeBox including at least one track group identifier and describing at least one group of the obtained tracks by using the at least one track group identifier, wherein the descriptive metadata further comprises a plurality of sets of properties for the obtained tracks and a SampleToGroupBox characterised by including a grouping type parameter, and the descriptive metadata further comprises a set of properties which is among the plurality of sets of properties and is associated with one or more samples of one of the obtained tracks, wherein a value of the grouping type parameter is equal to the at least one track group identifier, and wherein the associated set of properties is applied to the one or more samples within a track group identified by the grouping type parameter.