mhurhangee/patent-ind-claim-en huggingface dataset:
A system for automatically identifying a location of focal arrhythmogenic activity, the system comprising: an interface , configured to receive a collection of acquisitions acquired by a plurality of electrodes in a heart , wherein each acquisition comprises a set of electrophysiological (EP) signals; and a processor , which is configured to: estimate for each of the acquisitions a respective direction of arrival (DOA) and a respective distance relative to the electrodes, from which the set of EP signals originated; aggregate the acquisitions, to form a statistical distribution of the acquisitions as a function of estimated DOA and distance; check, using a statistical test, whether the statistical distribution of the acquisitions is consistent, in accordance with a predefined consistency criterion; if the statistical distribution of the acquisitions is found consistent, derive from the statistical distribution an estimated location in the heart of a focal source of an arrhythmogenic activity that generated the received EP signals; and overlay the estimated location of the focal source on an anatomical map of at least a portion of the heart. an interface , configured to receive a collection of acquisitions acquired by a plurality of electrodes in a heart , wherein each acquisition comprises a set of electrophysiological (EP) signals; and a processor , which is configured to: estimate for each of the acquisitions a respective direction of arrival (DOA) and a respective distance relative to the electrodes, from which the set of EP signals originated; aggregate the acquisitions, to form a statistical distribution of the acquisitions as a function of estimated DOA and distance; check, using a statistical test, whether the statistical distribution of the acquisitions is consistent, in accordance with a predefined consistency criterion; if the statistical distribution of the acquisitions is found consistent, derive from the statistical distribution an estimated location in the heart of a focal source of an arrhythmogenic activity that generated the received EP signals; and overlay the estimated location of the focal source on an anatomical map of at least a portion of the heart. estimate for each of the acquisitions a respective direction of arrival (DOA) and a respective distance relative to the electrodes, from which the set of EP signals originated; aggregate the acquisitions, to form a statistical distribution of the acquisitions as a function of estimated DOA and distance; check, using a statistical test, whether the statistical distribution of the acquisitions is consistent, in accordance with a predefined consistency criterion; if the statistical distribution of the acquisitions is found consistent, derive from the statistical distribution an estimated location in the heart of a focal source of an arrhythmogenic activity that generated the received EP signals; and overlay the estimated location of the focal source on an anatomical map of at least a portion of the heart.
An electrosurgical instrument comprising: a body comprising a distal end of the body, including a central passage defining a longitudinal axis; a suction pipe having a distal end and disposed within the body; and an electrode having a distal tip , the electrode disposed within the body and configured to deliver energy to tissue, the electrode slidable along the longitudinal axis with respect to the body between a withdrawn position, wherein the distal tip of the electrode is positioned within the body proximal to the distal end of the body, and an extended position, wherein at least a portion the distal tip of the electrode extends distally from the distal end of the body, wherein the distal tip includes a fixed portion and a collapsible portion and has a first position and a second position corresponding to the withdrawn position and the extended position of the electrode respectively, wherein in the first position the collapsible portion is disposed within the radial dimensions of the central passage of the body and characterised in that in the second position the collapsible portion extends beyond the radial dimensions of the central passage of the body, wherein the fixed portion includes a pivot pin and the collapsible portion includes a cam slot and a cam pin is positioned within the cam slot, the cam pin configured to move within the cam slot to move the collapsible portion from the first position to the second position, wherein a pull link is coupled to the cam pin for moving the cam pin within the cam slot to thereby move the collapsible portion from the first position towards the second position when the electrode is moved towards the extended position. a body comprising a distal end of the body, including a central passage defining a longitudinal axis; a suction pipe having a distal end and disposed within the body; and an electrode having a distal tip , the electrode disposed within the body and configured to deliver energy to tissue, the electrode slidable along the longitudinal axis with respect to the body between a withdrawn position, wherein the distal tip of the electrode is positioned within the body proximal to the distal end of the body, and an extended position, wherein at least a portion the distal tip of the electrode extends distally from the distal end of the body,
A method for initiating a chain of integrity measurements on a computing platform , comprising: providing , to the computing platform , a virtual machine root-of-trust for measurement "vRTM" in a first secure enclave of the computing platform, wherein the computing platform is configured to perform an integrity measurement of the first secure enclave; providing , to the computing platform , a virtual machine trusted platform module "vTPM", for a guest virtual machine "VM", outside of the first secure enclave; initiating , on the computing platform , a chain of integrity measurements between the vRTM and a resource of the guest VM, wherein the chain of integrity measurements comprises an integrity measurement of the vTPM; storing , in the vTPM, an integrity measurement of the chain of integrity measurements between the vRTM and the resource of the guest VM; and sealing a set of data to the stored integrity measurement of the vTPM, by encrypting said measurement to prevent decryption unless the vRTM's integrity is first verified. providing , to the computing platform , a virtual machine root-of-trust for measurement "vRTM" in a first secure enclave of the computing platform, wherein the computing platform is configured to perform an integrity measurement of the first secure enclave; providing , to the computing platform , a virtual machine trusted platform module "vTPM", for a guest virtual machine "VM", outside of the first secure enclave; initiating , on the computing platform , a chain of integrity measurements between the vRTM and a resource of the guest VM, wherein the chain of integrity measurements comprises an integrity measurement of the vTPM; storing , in the vTPM, an integrity measurement of the chain of integrity measurements between the vRTM and the resource of the guest VM; and sealing a set of data to the stored integrity measurement of the vTPM, by encrypting said measurement to prevent decryption unless the vRTM's integrity is first verified.
A fluid application device comprising: an applicator head : a slot die assembly comprising: a die extruder comprising one or more fluid input ports configured to receive a fluid from the applicator head ; a shim positioned adjacent to the die extruder , and a plate positioned adjacent to the shim on a side of the shim opposite from the die extruder ; a securing mechanism configured to secure the slot die assembly to the applicator head , the securing mechanism comprising a securing component at one of the applicator head and the slot die assembly , and a corresponding securing component at the other of the applicator head and slot die assembly ; characterized by a positioning mechanism including a spring loaded plunger . a slot die assembly comprising: a die extruder comprising one or more fluid input ports configured to receive a fluid from the applicator head ; a shim positioned adjacent to the die extruder , and a die extruder comprising one or more fluid input ports configured to receive a fluid from the applicator head ; a shim positioned adjacent to the die extruder , and a plate positioned adjacent to the shim on a side of the shim opposite from the die extruder ; a securing mechanism configured to secure the slot die assembly to the applicator head , the securing mechanism comprising a securing component at one of the applicator head and the slot die assembly , and a corresponding securing component at the other of the applicator head and slot die assembly ; characterized by a positioning mechanism including a spring loaded plunger . a securing mechanism configured to secure the slot die assembly to the applicator head , the securing mechanism comprising a securing component at one of the applicator head and the slot die assembly , and a corresponding securing component at the other of the applicator head and slot die assembly ; characterized by a positioning mechanism including a spring loaded plunger .
Mixing machine, comprising a frame , a pivotable module , a mixing head , and at least one connecting means (10, 10.1) for connecting a mixing container (M 1 ,M 2 ), containing a mixing material and open on the connection side, to the mixing head , for the purpose of forming a closed mixing container, the said mixing head , as part of a pivotable module , is mounted so as to pivot in relation to the frame in such a way that, for carrying out the mixing process, the closed mixing container formed from the mixing head and mixing container (M 1 ,M 2 ) can be pivoted in relation to the frame , and the said mixing head carries at least one rotary driven mixing tool (18, 51, 51.1), wherein the mixing head comprises a head plate with a connection flange formed on it and configured as an annular disk, with a flat contact surface , characterised in that arranged in the contact surface of the connection flange are at least two ring seals (28, 28.1, 29) of different diameters, leaving a spacing interval between them, such that mixing containers (M 1 ,M 2 ) with different connection diameters on their mixing head connection side can be connected to the mixing head , and that the at least one connecting means (10, 10.1) is configured so as to engage mixing containers (M 1 ,M 2 ) of different diameters on their connection sides.
A method for facilitating a change from a first communication channel to a second communication channel for an interaction within a contact center system for a first party after the interaction has been initiated and the first party is in queue for the first communication channel , comprising: a. providing, through a user interface interoperably connected to the contact center system through a web browser, the first party with estimated queue wait times for a plurality of communication channels associated with the contact center system; b. initiating an interaction through receiving a selection from the first party of the first communication channel from the plurality of communication channels ; c. processing the first selection by a service associated with the first communication channel , and routing the interaction into a queue associated with the first communication channel ; d. informing, through the user interface while the first party is waiting in the queue for the first communication channel , the first party of estimated queue wait times associated with each of the plurality of communication channels ; e. providing, through the user interface while the first party is waiting in the queue for the first communication channel , the first party with the capability to switch channels through selection of a prompt associated with each of the plurality of communication channels ; f. receiving a selection from the first party of the second communication channel ; g. transferring, via a switch channel API, the interaction from the queue associated with the first communication channel to a queue associated with the second communication channel . a. providing, through a user interface interoperably connected to the contact center system through a web browser, the first party with estimated queue wait times for a plurality of communication channels associated with the contact center system; b. initiating an interaction through receiving a selection from the first party of the first communication channel from the plurality of communication channels ; c. processing the first selection by a service associated with the first communication channel , and routing the interaction into a queue associated with the first communication channel ; d. informing, through the user interface while the first party is waiting in the queue for the first communication channel , the first party of estimated queue wait times associated with each of the plurality of communication channels ; e. providing, through the user interface while the first party is waiting in the queue for the first communication channel , the first party with the capability to switch channels through selection of a prompt associated with each of the plurality of communication channels ; f. receiving a selection from the first party of the second communication channel ; g. transferring, via a switch channel API, the interaction from the queue associated with the first communication channel to a queue associated with the second communication channel .
Light-emitting module , in particular for motor vehicles, comprising: - a housing delimiting an inner volume and comprising at least a first opening and a second opening , - a shaping optics adapted to shape light rays to form an output beam from the light emitting module , - a light emission source adapted to emit light rays into the interior volume, - a mirror module arranged to receive at least some of the light rays emitted by the light emitting source , the mirror module comprising a plurality of mirrors each movable between a first position in which the corresponding mirror is arranged to reflect light rays coming from the light emitting source to it towards the shaping optics , and a second position in which the corresponding mirror is arranged to reflect the light rays coming from the light emitting source away from the shaping optics , the light emitting module further comprising a cooling module configured to generate a flow of fluid flowing within the interior volume between the first and second openings to cool the light emitting module , the module being characterized in that at least a part of the mirrors are, in the second position, arranged to reflect the light rays coming from the light emission source towards at least one wall of the housing , the second opening being formed in said wall. - a housing delimiting an inner volume and comprising at least a first opening and a second opening , - a shaping optics adapted to shape light rays to form an output beam from the light emitting module , - a light emission source adapted to emit light rays into the interior volume, - a mirror module arranged to receive at least some of the light rays emitted by the light emitting source , the mirror module comprising a plurality of mirrors each movable between a first position in which the corresponding mirror is arranged to reflect light rays coming from the light emitting source to it towards the shaping optics , and a second position in which the corresponding mirror is arranged to reflect the light rays coming from the light emitting source away from the shaping optics ,
A coated article comprising a substantially planar substrate comprising a coating disposed on at least a first major surface thereof, the coating comprising 6 to 20 alternating layers of SiO 2 and one of ZrO 2 or Nb 2 O 5 , and a layer of TiO 2 disposed on a top layer of the alternating layers, wherein a thickness of each individual layer of the alternating layers is 70 nm to 200 nm, wherein the TiO 2 layer is 0.5 nm to 5 nm thick and wherein a bottom layer of the alternating layers contacts the first major surface.
A compound of Formula (I): or a pharmaceutically acceptable salt thereof, wherein: Q is pyridazin-3-yl or 6-fluoropyridazin-3-yl; R 1 is H; R 2 and R 3 are each independently C1-C6 alkyl, or R 2 and R 3 taken together are -(CH 2 ) 3 -; or R 1 and R 2 taken together are -(CH 2 ) 2 - and R 3 is -CH 3 ; R 4 is halo, -CH 3 , -OCH 3 , -OCHF 2 , -OCF 3 , or -CN; and n is 0, 1, or 2. Q is pyridazin-3-yl or 6-fluoropyridazin-3-yl; R 1 is H; R 2 and R 3 are each independently C1-C6 alkyl, or R 2 and R 3 taken together are -(CH 2 ) 3 -; or R 1 and R 2 taken together are -(CH 2 ) 2 - and R 3 is -CH 3 ; R 4 is halo, -CH 3 , -OCH 3 , -OCHF 2 , -OCF 3 , or -CN; and n is 0, 1, or 2.
Method for targetedly heat-treating individual zones of a steel component , wherein in one or more first regions of the steel component a primarily austenitic structure is established, from which a predominantly martensitic structure is producible by quenching, and in one or more second regions a predominantly ferritic-pearlitic structure is established, wherein further in one or more third regions of the steel component a predominantly bainitic structure is established, wherein the steel component is first heated in a first furnace to a temperature below the AC3 temperature, the steel component is then transferred to a treatment station , and is able to cool down during the transfer, and in the treatment station the one or more first regions and the one or more third regions of the steel component are heated to a temperature above the AC3 temperature within a dwell time t 151 , wherein the third region or regions of the steel component are then cooled to the cooling stop temperature θ s , and wherein the steel component is then transferred to a second furnace in which the steel component remains at a temperature below the austenitizing temperature for a dwell time (t 130 ) until sufficient bainitic structure has been formed in the third region or regions .
A Frequency Offset estimation system , comprising: a first Frequency Offset estimator to estimate wanted signal Frequency Offset of a wanted signal in an input signal; a second Frequency Offset estimator to estimate interferer Frequency Offset of an interferer in the input signal; a signal quality indicator to generate a signal quality indicator of the input signal; and a Frequency Offset estimation combiner to generate a combined Frequency Offset estimation of the input signal by combining estimates of the wanted signal Frequency Offset and the interferer Frequency Offset based on the signal quality indicator. a first Frequency Offset estimator to estimate wanted signal Frequency Offset of a wanted signal in an input signal; a second Frequency Offset estimator to estimate interferer Frequency Offset of an interferer in the input signal; a signal quality indicator to generate a signal quality indicator of the input signal; and a Frequency Offset estimation combiner to generate a combined Frequency Offset estimation of the input signal by combining estimates of the wanted signal Frequency Offset and the interferer Frequency Offset based on the signal quality indicator.
A method of wireless communication in a wireless communication system, comprising: maintaining data blocks at a wireless transmitting station for transmission to multiple wireless receiving stations over a wireless communication medium, wherein the data blocks are organized based on access categories; each access category contending for a transmission opportunity period for access to the wireless communication medium; and upon successful contention, during the transmission opportunity period transmitting one or more data blocks of a primary access category from the transmitting station to one or more primary destination wireless receiving stations, simultaneously transmitting one or more data blocks of one or more secondary access categories from the transmitting station to one or more secondary destination wireless receiving stations, over the wireless communication medium; wherein an access category associated with an enhanced distributed channel access function, EDCAF, that gains a transmission opportunity becomes the primary access category, and an access category being not associated with the EDCAF that gains the transmission opportunity becomes a secondary access category. maintaining data blocks at a wireless transmitting station for transmission to multiple wireless receiving stations over a wireless communication medium, wherein the data blocks are organized based on access categories; each access category contending for a transmission opportunity period for access to the wireless communication medium; and upon successful contention, during the transmission opportunity period transmitting one or more data blocks of a primary access category from the transmitting station to one or more primary destination wireless receiving stations, simultaneously transmitting one or more data blocks of one or more secondary access categories from the transmitting station to one or more secondary destination wireless receiving stations, over the wireless communication medium; wherein an access category associated with an enhanced distributed channel access function, EDCAF, that gains a transmission opportunity becomes the primary access category, and an access category being not associated with the EDCAF that gains the transmission opportunity becomes a secondary access category.
An exhaust treatment system comprising: a conduit for transmitting an exhaust gas having NOx from an engine to the atmosphere; an injector for injecting nitrogenous reductant into said exhaust gas; a selective catalytic reduction (SCR) catalyst situated to contact said exhaust gas and reduce said NOx using said nitrogenous reductant to form a NOx-reduced gas stream, which, at least intermittently, contains slip nitrogenous reductant; an HC injector for injecting HC into said NOx-reduced gas stream to form an HC-enriched gas stream, wherein the HC injector is controlled by a controller which is configured to periodically cause a certain amount of HC to be injected into the stream; a combined catalyst situated to contact said HC-enriched gas stream to form a heated gas stream, said combined catalyst comprising a first layer on a substrate having an oxidization catalyst to oxidize said slip nitrogenous reductant and said HC to heat said heated gas stream, the oxidation catalyst having a PGM concentration above 10 g/ft 3 (0.353 g/L), and a second layer adjacent to said first layer and having an SCR catalyst to reduce NOx in said heated gas stream; and a filter disposed to contact said heated gas stream to regenerate soot contained in said filter. a conduit for transmitting an exhaust gas having NOx from an engine to the atmosphere; an injector for injecting nitrogenous reductant into said exhaust gas; a selective catalytic reduction (SCR) catalyst situated to contact said exhaust gas and reduce said NOx using said nitrogenous reductant to form a NOx-reduced gas stream, which, at least intermittently, contains slip nitrogenous reductant; an HC injector for injecting HC into said NOx-reduced gas stream to form an HC-enriched gas stream, wherein the HC injector is controlled by a controller which is configured to periodically cause a certain amount of HC to be injected into the stream; a combined catalyst situated to contact said HC-enriched gas stream to form a heated gas stream, said combined catalyst comprising a first layer on a substrate having an oxidization catalyst to oxidize said slip nitrogenous reductant and said HC to heat said heated gas stream, the oxidation catalyst having a PGM concentration above 10 g/ft 3 (0.353 g/L), and a second layer adjacent to said first layer and having an SCR catalyst to reduce NOx in said heated gas stream; and a filter disposed to contact said heated gas stream to regenerate soot contained in said filter.