mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a memory array of one or more NAND non-volatile memory (NVM) storage elements formed in a die ; characterized by comprising: a neural network processing component formed under the die and coupled to the NAND NVM storage elements, the neural network processing component configured to perform neural network operations using neural network data stored in the NAND NVM storage elements; and an on-chip copy with update component configured to: read a plurality of synaptic weights stored in a block of the NAND NVM storage elements into a latch; perform an update of at least some of the synaptic weights in the latch by replacing the read synaptic weights with updated synaptic weights; and following the update, write the plurality of synaptic weights in the latch into another block of the NAND NVM storage elements. a memory array of one or more NAND non-volatile memory (NVM) storage elements formed in a die ; characterized by comprising: a neural network processing component formed under the die and coupled to the NAND NVM storage elements, the neural network processing component configured to perform neural network operations using neural network data stored in the NAND NVM storage elements; and an on-chip copy with update component configured to: read a plurality of synaptic weights stored in a block of the NAND NVM storage elements into a latch; perform an update of at least some of the synaptic weights in the latch by replacing the read synaptic weights with updated synaptic weights; and following the update, write the plurality of synaptic weights in the latch into another block of the NAND NVM storage elements. a neural network processing component formed under the die and coupled to the NAND NVM storage elements, the neural network processing component configured to perform neural network operations using neural network data stored in the NAND NVM storage elements; and an on-chip copy with update component configured to: read a plurality of synaptic weights stored in a block of the NAND NVM storage elements into a latch; perform an update of at least some of the synaptic weights in the latch by replacing the read synaptic weights with updated synaptic weights; and following the update, write the plurality of synaptic weights in the latch into another block of the NAND NVM storage elements. read a plurality of synaptic weights stored in a block of the NAND NVM storage elements into a latch; perform an update of at least some of the synaptic weights in the latch by replacing the read synaptic weights with updated synaptic weights; and following the update, write the plurality of synaptic weights in the latch into another block of the NAND NVM storage elements.
A detection system for detecting a loop and/or a knot in a catheter , the detection system comprising: a first coil and a second coil in spaced positions on a catheter body of the catheter ; a driver coupled by a wired communication link to the first coil , wherein the driver is configured to transmit a first signal to the first coil ; a receiver coupled by a wired communication link to the second coil , wherein the receiver is configured to receive a second signal from the second coil indicative of a proximity of the first coil and the second coil ; and a signal analyzer coupled by a wired or wireless communication link to the receiver that is configured to receive the second signal from the receiver and determine whether there is a change in the second signal indicative of a formation of the loop and/or the knot in the catheter . a first coil and a second coil in spaced positions on a catheter body of the catheter ; a driver coupled by a wired communication link to the first coil , wherein the driver is configured to transmit a first signal to the first coil ; a receiver coupled by a wired communication link to the second coil , wherein the receiver is configured to receive a second signal from the second coil indicative of a proximity of the first coil and the second coil ; and a signal analyzer coupled by a wired or wireless communication link to the receiver that is configured to receive the second signal from the receiver and determine whether there is a change in the second signal indicative of a formation of the loop and/or the knot in the catheter .
A process measurement instrument adapted for wireless communication, comprising: a measurement unit arranged to determine a measurement value of a filling level of a product in a tank, said measurement unit having an operation comprising active time periods and inactive time periods, said active time periods having higher power consumption than said inactive time periods, a memory arranged to store a current measurement value of said filling level, a wireless communication unit , arranged to access said current measurement value and communicate said current measurement value over a wireless communication channel according to a communication protocol with intermittently active communication, wherein said wireless communication unit has active periods during communication slots allocated by said communication protocol in each communication cycle of the wireless communication unit, and inactive periods between said active periods, and arbitration logic , in communication with said measurement unit and said wireless communication unit, and arranged to ensure that active periods of said measurement unit occur when said wireless communication is inactive, wherein said arbitration logic is configured to control the active periods of the measurement unit to occur during inactive periods of said wireless communication unit, thereby avoiding power consumption spikes and interference in said process measurement instrument, and does not control the active periods of the wireless communication unit. a measurement unit arranged to determine a measurement value of a filling level of a product in a tank, said measurement unit having an operation comprising active time periods and inactive time periods, said active time periods having higher power consumption than said inactive time periods, a memory arranged to store a current measurement value of said filling level, a wireless communication unit , arranged to access said current measurement value and communicate said current measurement value over a wireless communication channel according to a communication protocol with intermittently active communication, wherein said wireless communication unit has active periods during communication slots allocated by said communication protocol in each communication cycle of the wireless communication unit, and inactive periods between said active periods, and arbitration logic , in communication with said measurement unit and said wireless communication unit, and arranged to ensure that active periods of said measurement unit occur when said wireless communication is inactive, wherein said arbitration logic is configured to control the active periods of the measurement unit to occur during inactive periods of said wireless communication unit, thereby avoiding power consumption spikes and interference in said process measurement instrument, and does not control the active periods of the wireless communication unit.
Apparatus for the production of cast web of homogenized tobacco material, said casting system comprising • a casting box adapted to contain a slurry of said homogenized tobacco material and from which a cast web of said slurry may be cast; • a plurality of drying sections adapted to dry said cast web; • a movable support to receive the cast web formed by casting said slurry from said casting box and to transport it to said first drying section; • characterized in that it also comprises: • a drum adapted to move said movable support and adapted to allow heat exchange between said drum and said movable support; and • first temperature control means to cool said drum so that a temperature difference between a temperature of said movable support at a position where said cast web is received onto said support from said casting box and a temperature of said slurry in said casting box is comprised between 0 degree Celsius and about 30 degrees Celsius. • a casting box adapted to contain a slurry of said homogenized tobacco material and from which a cast web of said slurry may be cast; • a plurality of drying sections adapted to dry said cast web; • a movable support to receive the cast web formed by casting said slurry from said casting box and to transport it to said first drying section; • characterized in that it also comprises: • a drum adapted to move said movable support and adapted to allow heat exchange between said drum and said movable support; and • first temperature control means to cool said drum so that a temperature difference between a temperature of said movable support at a position where said cast web is received onto said support from said casting box and a temperature of said slurry in said casting box is comprised between 0 degree Celsius and about 30 degrees Celsius. • a drum adapted to move said movable support and adapted to allow heat exchange between said drum and said movable support; and • first temperature control means to cool said drum so that a temperature difference between a temperature of said movable support at a position where said cast web is received onto said support from said casting box and a temperature of said slurry in said casting box is comprised between 0 degree Celsius and about 30 degrees Celsius.
A pharmaceutical composition comprising sulfasalazine and a pharmaceutically acceptable excipient, wherein the sulfasalazine is in an essentially amorphous form, and wherein the pharmaceutical composition is formulated with a pharmaceutically acceptable polymer, the pharmaceutically acceptable polymer being PVP VA64, and the ratio of the sulfasalazine to PVP VA64 in the pharmaceutical composition is in the range of 5:95 wt/wt to 50:50 wt/wt.
An organic electroluminescent device comprising at least an anode , a hole injection layer , a first hole transport layer , a second hole transport layer , a light emitting layer , an electron transport layer , and a cathode in this order, wherein the hole injection layer comprises an arylamine compound of the following general formula and an electron acceptor: wherein Ar 1 to Ar 4 may be the same or different, and represent a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group, or a substituted or unsubstituted condensed polycyclic aromatic group, wherein the electron acceptor is an electron acceptor selected from trisbromophenylaminehexachloroantimony, tetracyanoquinodimethane (TCNQ), 2,3,5,6-tetrafluoro-tetracyano-1,4-benzoquinodimethane (F4TCNQ), and a radialene derivative, wherein the light emitting layer contains a host material, which is a quinazoline derivative, and characterized in that the first hole transport layer and the second hole transport layer comprise only a hole transporting arylamine compound, and wherein the compound in the first hole transport layer is different from the compound in the second hole transport layer. wherein Ar 1 to Ar 4 may be the same or different, and represent a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group, or a substituted or unsubstituted condensed polycyclic aromatic group, wherein the electron acceptor is an electron acceptor selected from trisbromophenylaminehexachloroantimony, tetracyanoquinodimethane (TCNQ), 2,3,5,6-tetrafluoro-tetracyano-1,4-benzoquinodimethane (F4TCNQ), and a radialene derivative, wherein the light emitting layer contains a host material, which is a quinazoline derivative, and characterized in that the first hole transport layer and the second hole transport layer comprise only a hole transporting arylamine compound, and wherein the compound in the first hole transport layer is different from the compound in the second hole transport layer.
A method for configuring a FlexE link group, comprising: obtaining (S201) candidate groups to which M physical ports of a first network device belong respectively, wherein the M physical ports of the first network device are connected to M physical ports of a second network device to form M physical links, when a member quantity I of a candidate group is greater than 1, an information reception time skew between an i th physical port in the candidate group and a slowest physical port in the candidate group is not greater than a time skew tolerance of the i th physical port, and the i th physical port is a physical port in the candidate group other than the slowest physical port, and the slowest physical port in the candidate group is a physical port in the candidate group slowest in receiving information sent by a peer physical port of a physical link, wherein M is an integer greater than 1, and i is an integer ranging from 1 to I-1; and selecting (S203) N physical links from the M physical links, as a FlexE link group between the first network device and the second network device, based on the candidate groups to which the M physical ports of the first network device belong respectively, wherein N is an integer greater than 1. obtaining (S201) candidate groups to which M physical ports of a first network device belong respectively, wherein the M physical ports of the first network device are connected to M physical ports of a second network device to form M physical links, when a member quantity I of a candidate group is greater than 1, an information reception time skew between an i th physical port in the candidate group and a slowest physical port in the candidate group is not greater than a time skew tolerance of the i th physical port, and the i th physical port is a physical port in the candidate group other than the slowest physical port, and the slowest physical port in the candidate group is a physical port in the candidate group slowest in receiving information sent by a peer physical port of a physical link, wherein M is an integer greater than 1, and i is an integer ranging from 1 to I-1; and selecting (S203) N physical links from the M physical links, as a FlexE link group between the first network device and the second network device, based on the candidate groups to which the M physical ports of the first network device belong respectively, wherein N is an integer greater than 1.
Cylindrical screening device having a plurality of profile bars , in which a plurality of annular bar holders extending perpendicularly to the cylinder axis and spaced apart from one another, or packs of a plurality of bar holders spaced apart from one another, are provided on the inner or outer side with open-edge recesses whose shape corresponds to the bar feet of the profile bars in a complementary manner, and in which the profile bars are inserted, parallel to one another and parallel to the cylinder axis , into the recesses , wherein in each case an outer bar holder is arranged in the region of a respective terminal end ring of the screening device, wherein at least the respective, outer bar holder is releasably connected to the end ring , characterized in that the respective end ring comprises a blocking ring arranged perpendicularly to the cylinder axis , one or more profile bars are formed in a profiled manner at the radial outer or inner circumference in the region of the respective blocking ring for the axial mounting thereof, and the contact region of the blocking ring that is opposite in each case to this profile is formed in a complementary manner thereto, wherein the profile is formed in such a way that, in interaction with the complementary contact region, a relative displacement between the profile bar and blocking ring is prevented.
A resin molded article containing functional fibers dispersed in an addition reaction type polyimide resin and having a limit PV value of not less than 3,000 kPa·m/s, wherein: - the addition reaction type polyimide resin is an aromatic polyimide oligomer having a phenylethynyl group as an addition reactive group at the end; - the functional fibers are carbon fibers having an average fiber length of 50 to 6,000 μm and an average fiber diameter of 5 to 20 μm; and - the limit PV value is measured as the product of a surface pressure P and a velocity V when frictional force sharply rises, wherein P and V are measured as follows: the surface pressure is increased every 5 minutes or 10 minutes at a fixed rate in a ring-on-disk system by using a thrust type abrasion tester based on JIS K 7218 (plastic sliding friction testing method), a time when frictional force sharply rises, remarkable deformation occurs or abrasion powders are produced is taken as a limit time, and the product of a surface pressure (P) before one at the limit time and the velocity (V) is taken as the limit PV value, using the following specific conditions: Test speed: 0.5 m/s Initial surface pressure: 0.5 MPa Surface pressure step: 0.5 MPa/10 min (~ 10 MPa) 1 MPa/10 min (10 MPa ~) Mating material: S45C ring, surface roughness Ra of 0. 8 μm, outer diameter of 25.6 mm, inner diameter of 20 mm (contact surface of 2 cm 2 ) Test environment: 23±2°C, 50 %RH±5 %RH. - the addition reaction type polyimide resin is an aromatic polyimide oligomer having a phenylethynyl group as an addition reactive group at the end; - the functional fibers are carbon fibers having an average fiber length of 50 to 6,000 μm and an average fiber diameter of 5 to 20 μm; and - the limit PV value is measured as the product of a surface pressure P and a velocity V when frictional force sharply rises, wherein P and V are measured as follows: the surface pressure is increased every 5 minutes or 10 minutes at a fixed rate in a ring-on-disk system by using a thrust type abrasion tester based on JIS K 7218 (plastic sliding friction testing method), a time when frictional force sharply rises, remarkable deformation occurs or abrasion powders are produced is taken as a limit time, and the product of a surface pressure (P) before one at the limit time and the velocity (V) is taken as the limit PV value, using the following specific conditions: Test speed: 0.5 m/s Initial surface pressure: 0.5 MPa Surface pressure step: 0.5 MPa/10 min (~ 10 MPa) 1 MPa/10 min (10 MPa ~) Mating material: S45C ring, surface roughness Ra of 0. 8 μm, outer diameter of 25.6 mm, inner diameter of 20 mm (contact surface of 2 cm 2 ) Test environment: 23±2°C, 50 %RH±5 %RH. Test speed: 0.5 m/s Initial surface pressure: 0.5 MPa Surface pressure step: 0.5 MPa/10 min (~ 10 MPa) 1 MPa/10 min (10 MPa ~) Mating material: S45C ring, surface roughness Ra of 0. 8 μm, outer diameter of 25.6 mm, inner diameter of 20 mm (contact surface of 2 cm 2 ) Test environment: 23±2°C, 50 %RH±5 %RH.
An add-on lens assembly for a camera comprising: a lens housing ; a mounting mechanism coupled to the lens housing and configured to engage an attachment assembly of the camera; a lens mounted in the lens housing , the lens defining a central optical axis and a lens plane normal to the central optical axis; a cam positioned adjacent to a portion of the lens housing , the cam including a cam slot having a first length extending in a direction that is not parallel to the lens plane and being adjustable between at least a first cam position and a second cam position; a pusher configured to abut or nearly abut at least a portion of the attachment assembly of the camera, wherein a force between the pusher and the attachment assembly of the camera comprises a first force when the cam is in the first cam position and a second force when the cam is in the second cam position; a lock ring being rotatable between a first lock ring position and a second lock ring position; and a cam pin having a first end and a second end, the first end of the cam pin being fixed to the lock ring and the second end of the cam pin extending through the cam slot in the cam ; whereby rotating the lock ring from the first position to the second position causes the cam pin to navigate through the first length of the cam slot , forcing the cam to transition from the first cam position to the second cam position and changing the force between the pusher and the attachment assembly of the camera from the first force to the second force. a lens housing ; a mounting mechanism coupled to the lens housing and configured to engage an attachment assembly of the camera; a lens mounted in the lens housing , the lens defining a central optical axis and a lens plane normal to the central optical axis; a cam positioned adjacent to a portion of the lens housing , the cam including a cam slot having a first length extending in a direction that is not parallel to the lens plane and being adjustable between at least a first cam position and a second cam position; a pusher configured to abut or nearly abut at least a portion of the attachment assembly of the camera, wherein a force between the pusher and the attachment assembly of the camera comprises a first force when the cam is in the first cam position and a second force when the cam is in the second cam position; a lock ring being rotatable between a first lock ring position and a second lock ring position; and a cam pin having a first end and a second end, the first end of the cam pin being fixed to the lock ring and the second end of the cam pin extending through the cam slot in the cam ; whereby rotating the lock ring from the first position to the second position causes the cam pin to navigate through the first length of the cam slot , forcing the cam to transition from the first cam position to the second cam position and changing the force between the pusher and the attachment assembly of the camera from the first force to the second force.
Method for determining the influence of at least one control device, which controls at least one subscriber operated in a supply network, on the energy flows measured by a meter, and their mapping to one another, comprising: - sending control commands from the control device to the at least one subscriber, - receiving count values from the meter in the control device, - temporally correlating the received count values with expected values for the count values which are dependent on the control commands and are stored in the control device, and - determining the influence on the meter by the control device depending on the correlation and mapping them to one another on the basis of the influence. - sending control commands from the control device to the at least one subscriber, - receiving count values from the meter in the control device, - temporally correlating the received count values with expected values for the count values which are dependent on the control commands and are stored in the control device, and - determining the influence on the meter by the control device depending on the correlation and mapping them to one another on the basis of the influence.