mhurhangee/patent-ind-claim-en huggingface dataset:
A network element upgrade method for a hitless network element upgrade process, wherein the method comprises: completing a system upgrade for a second network element, such that a version of the second network element is not lower than a version of a first network element; receiving , by a software load balancer SLB, a distribution policy delivered by an element management system EMS; forwarding , by the SLB to the first network element according to the distribution policy, some of a plurality of received service messages sent by an external network element, and forwarding remaining service messages to the second network element according to the distribution policy; and after a processing result of the service messages on the second network element meets a preset condition, forwarding , by the SLB , all of a plurality of subsequently received service messages sent by the external network element to the second network element, wherein the preset condition indicates that the second network element can perform service processing like the first network element; the distribution policy is used to control a ratio of a quantity of the service messages forwarded to the first network element to a quantity of the service messages forwarded to the second network element, the second network element is a standby network element of the first network element, the second network element has a same configuration attribute and connection configuration as the first network element, the second network element and the first network element are located in different virtual local area networks. completing a system upgrade for a second network element, such that a version of the second network element is not lower than a version of a first network element; receiving , by a software load balancer SLB, a distribution policy delivered by an element management system EMS; forwarding , by the SLB to the first network element according to the distribution policy, some of a plurality of received service messages sent by an external network element, and forwarding remaining service messages to the second network element according to the distribution policy; and after a processing result of the service messages on the second network element meets a preset condition, forwarding , by the SLB , all of a plurality of subsequently received service messages sent by the external network element to the second network element, wherein the preset condition indicates that the second network element can perform service processing like the first network element; the distribution policy is used to control a ratio of a quantity of the service messages forwarded to the first network element to a quantity of the service messages forwarded to the second network element, the second network element is a standby network element of the first network element, the second network element has a same configuration attribute and connection configuration as the first network element, the second network element and the first network element are located in different virtual local area networks.
A geared motor with a gear unit which has an input shaft and a housing which has a housing part , a receiving part and a cover part , in particular and also a gear unit cover , wherein the housing surrounds toothed parts and oil at least partially in a housing-forming manner, wherein there is connected non-rotatably to the input shaft a bevel pinion which is engaged with a wheel , in particular bevel wheel, connected non-rotatably to the intermediate shaft , wherein a first helical spur gear is connected non-rotatably to the intermediate shaft , which spur gear is engaged with a gear wheel , in particular second helical spur gear, connected non-rotatably to the output shaft of the gear unit, in particular wherein the axis of rotation of the input shaft is oriented perpendicularly to the axis of rotation of the intermediate shaft , wherein the axis of rotation of the intermediate shaft is oriented parallel to the axis of rotation of the output shaft , characterised in that a disc held in a form-fit by a screw screwed into the input shaft limits the bevel pinion in the axial direction, the bevel pinion being mounted on a conically shaped region of the input shaft , wherein the conical region being formed on the outermost axial end region of the shaft and the bevel pinion being mounted such that the end face of the shaft is that axial position at which the bevel pinion is limited by the disc, the disc projecting in the radial direction at the axial position of the end face of the input shaft . wherein there is connected non-rotatably to the input shaft a bevel pinion which is engaged with a wheel , in particular bevel wheel, connected non-rotatably to the intermediate shaft , wherein a first helical spur gear is connected non-rotatably to the intermediate shaft , which spur gear is engaged with a gear wheel , in particular second helical spur gear, connected non-rotatably to the output shaft of the gear unit, in particular wherein the axis of rotation of the input shaft is oriented perpendicularly to the axis of rotation of the intermediate shaft , wherein the axis of rotation of the intermediate shaft is oriented parallel to the axis of rotation of the output shaft , characterised in that a disc held in a form-fit by a screw screwed into the input shaft limits the bevel pinion in the axial direction, the bevel pinion being mounted on a conically shaped region of the input shaft , wherein the conical region being formed on the outermost axial end region of the shaft and the bevel pinion being mounted such that the end face of the shaft is that axial position at which the bevel pinion is limited by the disc, the disc projecting in the radial direction at the axial position of the end face of the input shaft .
A medical system comprising: means for delivering stimulation therapy comprising a first set of a plurality of pulses having a first amplitude, and a second set of a plurality of pulses having a second amplitude greater than the first amplitude, wherein one or more pulses of the second set of plurality of pulses are intermingled with sequential groups of pulses of the first set of plurality of pulses; characterised by means for adjusting the second amplitude to an adjusted second amplitude until the adjusted second amplitude is one of: greater than or equal to an activation threshold based on the second amplitude being less than the activation threshold, or less than or equal to the activation threshold based on the second amplitude being greater than the activation threshold; means for adjusting the first amplitude to an adjusted first amplitude based on the adjusted second amplitude; and means for delivering stimulation therapy based at least on the adjusted first amplitude. means for delivering stimulation therapy comprising a first set of a plurality of pulses having a first amplitude, and a second set of a plurality of pulses having a second amplitude greater than the first amplitude, wherein one or more pulses of the second set of plurality of pulses are intermingled with sequential groups of pulses of the first set of plurality of pulses; characterised by means for adjusting the second amplitude to an adjusted second amplitude until the adjusted second amplitude is one of: greater than or equal to an activation threshold based on the second amplitude being less than the activation threshold, or less than or equal to the activation threshold based on the second amplitude being greater than the activation threshold; characterised by means for adjusting the second amplitude to an adjusted second amplitude until the adjusted second amplitude is one of: greater than or equal to an activation threshold based on the second amplitude being less than the activation threshold, or less than or equal to the activation threshold based on the second amplitude being greater than the activation threshold; means for adjusting the first amplitude to an adjusted first amplitude based on the adjusted second amplitude; and means for delivering stimulation therapy based at least on the adjusted first amplitude.
An armored radome (10; 100), comprising: a metallic plate (20; 104) formed to define an array of through-holes (21; 111), each through-hole (21; 111) having a respective longitudinal axis substantially aligned with electromagnetic radiation passing locally through the metallic plate (20; 104); characterized in that the armored radome further comprises a dielectric plate (50; 101) disposed substantially adjacent to the metallic plate (20; 104) with an air gap defined between the dielectric plate (50; 101) and the metallic plate (20; 104). a metallic plate (20; 104) formed to define an array of through-holes (21; 111), each through-hole (21; 111) having a respective longitudinal axis substantially aligned with electromagnetic radiation passing locally through the metallic plate (20; 104); characterized in that the armored radome further comprises a dielectric plate (50; 101) disposed substantially adjacent to the metallic plate (20; 104) with an air gap defined between the dielectric plate (50; 101) and the metallic plate (20; 104).
Plug connector which has a contact support that is injection molded from plastic and has contact chambers for receiving a contact partner in each case, wherein furthermore provided is a sealing element which acts on in each case an outer sheath of at least one cable , which is guided out of the plug connector and the end of the electrical conductor of which is connected to the associated contact partner, wherein the sealing element is formed together with the contact support from plastic processed in an injection molding process, characterized in that the sealing element is injection molded directly on the contact support at at least one predetermined breaking point, preferably exactly two predetermined breaking points .
Electric motor , comprising a rotor mounted rotatably about an axis of rotation (D) that extends in the axial direction (A), and comprising a stator with a laminated core , said laminated core forming a stator yoke and stator teeth of the stator directed radially from said stator yoke , - wherein the stator teeth are extended on the tooth root side in a T-shape to form pole lugs extending in the circumferential direction (U) of the stator , - wherein the pole lugs each form an abutment shoulder , - wherein a respective stator slot for receiving coils of a stator winding is formed between adjacent stator teeth and a respective groove slot is formed between mutually facing pole lugs , - wherein a number of stiffening elements are provided, which are inserted into a corresponding number of groove slots , - wherein the stiffening elements are held on the mutually facing pole lugs of adjacent stator teeth in the radial direction (R) by means of the abutment shoulders , - wherein the pole lugs at the free end have a groove , which is open in the circumferential direction (U) and extends in the axial direction (A), the respective abutment shoulder for the stiffening element being formed by one of the groove walls of the groove , characterized in - that the stator , in particular its laminated core , has a plastic over-moulding , by means of which the stator-yoke-side groove wall of the groove is formed, and - that the rotor-side groove wall is formed by means of the laminated core . - wherein the stator teeth are extended on the tooth root side in a T-shape to form pole lugs extending in the circumferential direction (U) of the stator , - wherein the pole lugs each form an abutment shoulder , - wherein a respective stator slot for receiving coils of a stator winding is formed between adjacent stator teeth and a respective groove slot is formed between mutually facing pole lugs , - wherein a number of stiffening elements are provided, which are inserted into a corresponding number of groove slots , - wherein the stiffening elements are held on the mutually facing pole lugs of adjacent stator teeth in the radial direction (R) by means of the abutment shoulders , - wherein the pole lugs at the free end have a groove , which is open in the circumferential direction (U) and extends in the axial direction (A), the respective abutment shoulder for the stiffening element being formed by one of the groove walls of the groove , characterized in - that the stator , in particular its laminated core , has a plastic over-moulding , by means of which the stator-yoke-side groove wall of the groove is formed, and - that the rotor-side groove wall is formed by means of the laminated core .
An audio capture apparatus comprising: a first beamformer arranged to generate a beamformed audio output signal; an adapter for adapting beamform parameters of the first beamformer ; a detector for detecting an attack of speech in the beamformed audio output signal; and a controller for controlling the adaptation of the beamform parameters to occur in a predetermined adaptation time interval determined in response to the detection of the attack of speech. a first beamformer arranged to generate a beamformed audio output signal; an adapter for adapting beamform parameters of the first beamformer ; a detector for detecting an attack of speech in the beamformed audio output signal; and a controller for controlling the adaptation of the beamform parameters to occur in a predetermined adaptation time interval determined in response to the detection of the attack of speech.
A Bacillus cell, wherein: (a) the Bacillus cell is a mutant of a parental Bacillus licheniformis cell comprising a glcT gene encoding a variant GlcT protein comprising a phenylalanine (F) at amino acid position 67 (F67) of SEQ ID NO: 55 or; (b) the Bacillus cell is a genetically modified Bacillus cell derived from a parental Bacillus cell comprising a wild-type glcT gene encoding a wild-type GlcT protein of SEQ ID NO: 82, wherein the modified Bacillus cell comprises a modified glcT gene encoding a GlcT protein comprising at least 90% sequence identity to SEQ ID NO: 55 and comprising a phenylalanine (F) at position 67 of SEQ ID NO: 55, or; (c) the Bacillus cell is a genetically modified Bacillus cell comprising an introduced polynucleotide encoding a variant GlcT protein comprising at least 90% sequence identity to SEQ ID NO: 55 and comprising a phenylalanine (F) at amino acid position 67 (F67) of SEQ ID NO: 55, or; (d) the Bacillus cell is a modified Bacillus cell derived from a parental Bacillus cell comprising a glcT gene encoding a wild-type GlcT protein comprising a leucine (L) at amino acid position 67 (L67) of SEQ ID NO: 82, wherein the modified Bacillus cell comprises a modified glcT gene encoding a variant GlcT protein comprising a phenylalanine (F) at amino acid position 67 (F67) of SEQ ID NO: 55, wherein the modified Bacillus cell produces an increased amount of a protein of interest (POI) relative to the parental cell producing the same POI. (a) the Bacillus cell is a mutant of a parental Bacillus licheniformis cell comprising a glcT gene encoding a variant GlcT protein comprising a phenylalanine (F) at amino acid position 67 (F67) of SEQ ID NO: 55 or; (b) the Bacillus cell is a genetically modified Bacillus cell derived from a parental Bacillus cell comprising a wild-type glcT gene encoding a wild-type GlcT protein of SEQ ID NO: 82, wherein the modified Bacillus cell comprises a modified glcT gene encoding a GlcT protein comprising at least 90% sequence identity to SEQ ID NO: 55 and comprising a phenylalanine (F) at position 67 of SEQ ID NO: 55, or; (c) the Bacillus cell is a genetically modified Bacillus cell comprising an introduced polynucleotide encoding a variant GlcT protein comprising at least 90% sequence identity to SEQ ID NO: 55 and comprising a phenylalanine (F) at amino acid position 67 (F67) of SEQ ID NO: 55, or; (d) the Bacillus cell is a modified Bacillus cell derived from a parental Bacillus cell comprising a glcT gene encoding a wild-type GlcT protein comprising a leucine (L) at amino acid position 67 (L67) of SEQ ID NO: 82, wherein the modified Bacillus cell comprises a modified glcT gene encoding a variant GlcT protein comprising a phenylalanine (F) at amino acid position 67 (F67) of SEQ ID NO: 55, wherein the modified Bacillus cell produces an increased amount of a protein of interest (POI) relative to the parental cell producing the same POI.
A magnetic sensor comprising: a sensor substrate ; first, second, and third magnetic layers provided on the sensor substrate; and first, second, third, and fourth magnetic sensing elements (R1,R2,R3,R4) that are bridge-connected, wherein the first magnetic layer includes a first main area (M1) and first, second, third, and fourth converging areas (S1,S2,S3,S4) each having a width gradually reduced with increasing distance from the first main area, wherein the second magnetic layer includes a second main area and fifth and seventh converging areas each having a width gradually reduced with increasing distance from the second main area (M2), wherein the third magnetic layer includes a third main area (M3) and sixth and eighth converging areas (S6,S8) each having a width gradually reduced with increasing distance from the third main area, wherein end portions of the first, second, third, and fourth converging areas and end portions of the fifth, sixth, seventh, and eighth converging areas face each other, respectively, through first, second, third, and fourth gaps (G1,G2,G3,G4), respectively, and wherein the first, second, third, and fourth magnetic sensing elements are disposed on magnetic paths formed by the first, second, third, and fourth gaps, respectively. a sensor substrate ; first, second, and third magnetic layers provided on the sensor substrate; and first, second, third, and fourth magnetic sensing elements (R1,R2,R3,R4) that are bridge-connected, wherein the first magnetic layer includes a first main area (M1) and first, second, third, and fourth converging areas (S1,S2,S3,S4) each having a width gradually reduced with increasing distance from the first main area, wherein the second magnetic layer includes a second main area and fifth and seventh converging areas each having a width gradually reduced with increasing distance from the second main area (M2), wherein the third magnetic layer includes a third main area (M3) and sixth and eighth converging areas (S6,S8) each having a width gradually reduced with increasing distance from the third main area, wherein end portions of the first, second, third, and fourth converging areas and end portions of the fifth, sixth, seventh, and eighth converging areas face each other, respectively, through first, second, third, and fourth gaps (G1,G2,G3,G4), respectively, and wherein the first, second, third, and fourth magnetic sensing elements are disposed on magnetic paths formed by the first, second, third, and fourth gaps, respectively.
A core-cladding assembly comprising: a porous soot cladding monolith , said porous soot cladding monolith including a first porous cladding glass layer surrounding an internal cavity , said porous soot cladding monolith comprising a first material having a first coefficient of thermal expansion; a core cane having a portion positioned in said internal cavity, said core cane comprising a second material having a second coefficient of thermal expansion, said second coefficient of thermal expansion differing from said first coefficient of thermal expansion; and a cap for capping the core cane having a portion positioned in said internal cavity, said cap comprising a third material having a third coefficient of thermal expansion, said third coefficient of thermal expansion differing from said second coefficient of thermal expansion; wherein said second coefficient of thermal expansion is greater than said first coefficient of thermal expansion, said second coefficient of thermal expansion is greater than said third coefficient of thermal expansion and said third coefficient of thermal expansion is greater than or equal to said first coefficient of thermal expansion, wherein the third coefficient of thermal expansion is more closely matched to the first coefficient of thermal expansion. a porous soot cladding monolith , said porous soot cladding monolith including a first porous cladding glass layer surrounding an internal cavity , said porous soot cladding monolith comprising a first material having a first coefficient of thermal expansion; a core cane having a portion positioned in said internal cavity, said core cane comprising a second material having a second coefficient of thermal expansion, said second coefficient of thermal expansion differing from said first coefficient of thermal expansion; and a cap for capping the core cane having a portion positioned in said internal cavity, said cap comprising a third material having a third coefficient of thermal expansion, said third coefficient of thermal expansion differing from said second coefficient of thermal expansion; wherein said second coefficient of thermal expansion is greater than said first coefficient of thermal expansion, said second coefficient of thermal expansion is greater than said third coefficient of thermal expansion and said third coefficient of thermal expansion is greater than or equal to said first coefficient of thermal expansion, wherein the third coefficient of thermal expansion is more closely matched to the first coefficient of thermal expansion.
A homogenized tobacco sheet production line comprising: ∘ a tank adapted to contain a slurry formed by a tobacco powder blend , a binder and an aerosol former in an aqueous medium; ∘ a cast apparatus adapted to receive slurry from the tank and to cast the slurry so as to form a homogenized tobacco material; ∘ a movable transporting support on which said slurry is casted and adapted to transport the homogenized tobacco material along a transport direction; characterized in that it also includes ∘ a slitter located downstream the cast apparatus adapted to slit the homogenized tobacco material along the transport direction so as to form portioned homogenized tobacco sheets, wherein the said slitter comprises at least two blades , so as to form at least three portioned homogenized tobacco sheets ; and ∘ a winding station located downstream the slitter adapted to receive the portioned homogenized tobacco sheets from the slitter and to wind at least one of the portioned homogenized tobacco sheets in a bobbin , wherein the winding station comprises a number of bobbin holders equal to the number of portioned homogenized tobacco sheets in which the homogenized tobacco sheet is cut by the slitter . ∘ a tank adapted to contain a slurry formed by a tobacco powder blend , a binder and an aerosol former in an aqueous medium; ∘ a cast apparatus adapted to receive slurry from the tank and to cast the slurry so as to form a homogenized tobacco material; ∘ a movable transporting support on which said slurry is casted and adapted to transport the homogenized tobacco material along a transport direction; ∘ a slitter located downstream the cast apparatus adapted to slit the homogenized tobacco material along the transport direction so as to form portioned homogenized tobacco sheets, wherein the said slitter comprises at least two blades , so as to form at least three portioned homogenized tobacco sheets ; and ∘ a winding station located downstream the slitter adapted to receive the portioned homogenized tobacco sheets from the slitter and to wind at least one of the portioned homogenized tobacco sheets in a bobbin , wherein the winding station comprises a number of bobbin holders equal to the number of portioned homogenized tobacco sheets in which the homogenized tobacco sheet is cut by the slitter .