mhurhangee/patent-ind-claim-en huggingface dataset:
An electro-mechanical drive for a floatable device, which is usable in sport fishing, comprising an electrical cable connection, a water-tight casing , a drive propeller , a narrow mount , a mounting foot , a protective device and a motor , wherein the drive is connected to an energy storage device via the electrical cable connection and the motor of said drive via the drive shaft thereof is connected to the drive propeller , which is located outside the water-tight casing , and the narrow mount is connected to the casing on one side, wherein a free end of the mount ends in the mounting foot for the connection to a mount , which is disposed at the floatable device, and furthermore, starting at the casing , the protective device is provided, which in a ring-shape or by a segment of a circle or of an arc surrounds the drive propeller at a distance, the water-tight casing includes two protruding and spaced-apart connecting supports , the protective device spanning over the ends of said connecting supports, characterized in that , in the area of the motor , the water-tight casing is at least embodied double-walled, and in the exterior skin thereof is penetrated by intake openings for the cooling water to enter, which may exit again via exit openings in the area of the connecting supports , and in that , at one end via a power supply connection , the electrical cable connection is guided through a channel within the mount to the motor and connected to the energy storage device in a pluggable manner.
A separable footwear article comprising: an outsole oriented to define a bottom of a footwear article and configured for ground contact, the outsole comprising a first material; an upper portion , the upper portion comprising a second material different from the first material; an insole removeably disposed adjacent the upper portion and the outsole , the insole comprising a third material different from the first material and the second material; a welt , wherein the welt is split from a center or near a center to define a generally Y-shaped cross section, wherein a first branch is releasably coupled to the upper portione with a first thread using chain stitching and a second branch is releasably coupled to the outsole with a second thread using chain stitching, wherein at least one of the first branch or the second branch comprises notches to provide freedom of movement, wherein the separable footwear article is configured to be disassembled by pulling out a loop of the chain-stitching that couples the outsole , the upper portion and the welt together, disengaging the first thread and the second thread from the footwear and applying force by tugging sharply on the first thread and the second thread until the coupled outsole , upper portion and welt are separated from one another an outsole oriented to define a bottom of a footwear article and configured for ground contact, the outsole comprising a first material; an upper portion , the upper portion comprising a second material different from the first material; an insole removeably disposed adjacent the upper portion and the outsole , the insole comprising a third material different from the first material and the second material; a welt , wherein the welt is split from a center or near a center to define a generally Y-shaped cross section, wherein a first branch is releasably coupled to the upper portione with a first thread using chain stitching and a second branch is releasably coupled to the outsole with a second thread using chain stitching, wherein at least one of the first branch or the second branch comprises notches to provide freedom of movement,
A closing cap (1; 1a; 1b; 1c) for a container, comprising a lateral wall extending around an axis (Z) and a transversal wall positioned at one end of the lateral wall , a separating line being provided on the lateral wall to define a retaining ring , which comprises a retaining portion which extends as far as a free edge of the retaining ring and is configured to internally engage with a locking ring of a neck of the container in such a way as to remain anchored to the neck, and a closing element removably engageable with the neck, so as to open or close the container; the cap additionally comprising an incision line (7; 7'), which is also provided on the lateral wall to define, together with the separating line at least one connecting band (306; 307) for connecting the closing element and the retaining portion to each other; wherein the cap (1; 1a; 1b; 1c) comprises: a coupling structure (2; 2a; 2c) positioned inside the lateral wall for removably coupling the closing element to the neck of the container, the lateral wall having a first portion , without the coupling structure (2; 2a; 2c) and on which the separating line and the incision line (7; 7') are made, which has a first height (T1) measured along an axis parallel to the axis (Z) starting from the free edge , and a second portion provided with the coupling structure (2; 2a; 2c), which has a second height (T2) measured along an axis parallel to the axis (Z) starting from the transversal wall ; wherein the ratio between the second height (T2) and the first height (T1) is greater than or equal to 1.0 and is less than or equal to 2.00 so that the connecting band can be made in the first portion with suitable dimensions; and characterized in that at a distance from the free edge equal to the first height (T1) there is a transition from the first portion to the second portion , the separating line , or the incision line , being positioned at a distance less than or equal to 1.00 mm from said transition, the transition being where the coupling structure (2; 2a; 2c) begins.
A computer-implemented method comprising: receiving a request from a user to generate a contextual ticket that indicates an issue with an integration for sending a meter location change to a meter data management system; obtaining baseline information (320; 410) for the issue, wherein the baseline information comprises a description provided by the user and a navigation point for the issue; generating, based on the baseline information, a ticket knowledge graph , the generating comprising: generating extracted information based on the baseline information, wherein the extracted information comprises one or more of integration status, technical metadata and integration type; and generating the ticket knowledge graph based on the baseline information and the extracted information; providing the ticket knowledge graph to a machine-learning trained action determination engine ; receiving, from the machine-learning trained action determination engine, an indication of an action for resolving the issue; and automatically providing, based on the indication of the action for resolving the issue, the action to a particular engine to resolve the issue. receiving a request from a user to generate a contextual ticket that indicates an issue with an integration for sending a meter location change to a meter data management system; obtaining baseline information (320; 410) for the issue, wherein the baseline information comprises a description provided by the user and a navigation point for the issue; generating, based on the baseline information, a ticket knowledge graph , the generating comprising: generating extracted information based on the baseline information, wherein the extracted information comprises one or more of integration status, technical metadata and integration type; and generating the ticket knowledge graph based on the baseline information and the extracted information; generating extracted information based on the baseline information, wherein the extracted information comprises one or more of integration status, technical metadata and integration type; and generating the ticket knowledge graph based on the baseline information and the extracted information; providing the ticket knowledge graph to a machine-learning trained action determination engine ; receiving, from the machine-learning trained action determination engine, an indication of an action for resolving the issue; and automatically providing, based on the indication of the action for resolving the issue, the action to a particular engine to resolve the issue.
A display system comprising a display with a flexible touchscreen , a housing , and a motor with an electric actuator, wherein the display can be extended out of the housing by electrical actuation of the motor , wherein the motor is configured for causing a bending or roll-out movement of the display , wherein during extension of the display , the bending or roll-out movement is converted into a translational movement of the display , and wherein the motor is configured for generating a haptic feedback, wherein the display system comprises an electronic unit configured to detect a touching of the touchscreen , and to initiate an electrical haptic pulse based on the detected touch, characterized in that the haptic impulse initiates a pulse-like haptic actuation of the motor .
Method for producing a mould segment of a vulcanization mould for a vehicle tyre having a profiled tread, wherein, on an in particular planar surface of a first mould segment part prefabricated by a non-generative manufacturing process, a further mould segment part is built up in layers by means of a generative manufacturing process by melting metal powder and is materially bonded to the first mould segment part , wherein the further mould segment part is built up together with the elements forming the profile negative of the tread of the vehicle tyre, and wherein the further mould segment part is built up with an outer layer and an inner region adjoining the first mould segment part , wherein the outer layer is built up from completely melted metal powder and surrounds the inner region on the outside, characterized in that the inner region is built up at least partially with a volumetric energy input which differs from the volumetric energy input during the build-up of the outer layer , in such a way that the inner region is formed with a porosity of 0.01 to 0.5. wherein the further mould segment part is built up together with the elements forming the profile negative of the tread of the vehicle tyre, and wherein the further mould segment part is built up with an outer layer and an inner region adjoining the first mould segment part , wherein the outer layer is built up from completely melted metal powder and surrounds the inner region on the outside, characterized in that the inner region is built up at least partially with a volumetric energy input which differs from the volumetric energy input during the build-up of the outer layer , in such a way that the inner region is formed with a porosity of 0.01 to 0.5.
An immunochromatographic test strip, comprising the following configuration: a membrane consisting of a porous body equipped with at least a sample supply portion, a spreading portion, and a detecting portion, wherein a part of the spreading portion comprises a conjugate-retaining part where a conjugate of an anti-analyte antibody labeled with colloidal gold is retained in a dissoluble manner, and an immobilized antibody is immobilized in the detecting portion which is a part of the spreading portion on the downstream side relative to the conjugate-retaining part; and an additive for suppressing agglutination of the conjugate due to hexadimethrine bromide acting as a hemagglutinating agent, wherein the additive is contained at least in a part of from the sample supply portion to an upstream side of the conjugate-retaining part of the spreading portion so as to be capable of contacting with hexadimethrine bromide that is provided through the sample supply portion, wherein the additive is a salt of a divalent metal, and wherein hexadimethrine bromide is contained in the sample supply portion. a membrane consisting of a porous body equipped with at least a sample supply portion, a spreading portion, and a detecting portion, wherein a part of the spreading portion comprises a conjugate-retaining part where a conjugate of an anti-analyte antibody labeled with colloidal gold is retained in a dissoluble manner, and an immobilized antibody is immobilized in the detecting portion which is a part of the spreading portion on the downstream side relative to the conjugate-retaining part; and an additive for suppressing agglutination of the conjugate due to hexadimethrine bromide acting as a hemagglutinating agent, wherein the additive is contained at least in a part of from the sample supply portion to an upstream side of the conjugate-retaining part of the spreading portion so as to be capable of contacting with hexadimethrine bromide that is provided through the sample supply portion,
A valve apparatus , in particular a ball valve apparatus, comprising a housing device having at least one fluid port , a closure body , wherein the closure body comprises an axis of rotation about which the closure body can be rotated in a direction of rotation in order to release and close the fluid port , wherein the fluid port comprises a seal for sealing abutment against the closure body , wherein the seal comprises a first and a second sealing lip , wherein the sealing lips are configured such that, during operation, at least during one operating state, only one of the two sealing lips sealingly abuts against the closure body , characterized in that as a function of the pressure difference between a port side and a valve side , the first and the second sealing lip alternately abut sealingly against the closure body in such a way that, when the port side is exposed to a higher pressure in a first operating state , only the first sealing lip sealingly abuts against the closure body , and when the valve side is exposed to a higher pressure in a second operating state , only the second sealing lip sealingly abuts against the closure body . wherein the seal comprises a first and a second sealing lip , wherein the sealing lips are configured such that, during operation, at least during one operating state, only one of the two sealing lips sealingly abuts against the closure body , characterized in that as a function of the pressure difference between a port side and a valve side , the first and the second sealing lip alternately abut sealingly against the closure body in such a way that, when the port side is exposed to a higher pressure in a first operating state , only the first sealing lip sealingly abuts against the closure body , and when the valve side is exposed to a higher pressure in a second operating state , only the second sealing lip sealingly abuts against the closure body .
A nanostructured, and transparent or translucent vitroceramics, having a substantially zero content of Li 2 O, Al 2 O 3 and BaO, and comprising at least 97%, such as from 97% to 100%, preferably from 99% to 100% by mass, relative to the total mass of the material, of a composition of formula I below: (GeO 2 ) x (SiO 2 ) y (B 2 O 3 ) z (Ga 2 O 3 ) a (Oxy 1 ) b (Oxy 2 ) k (I) where Oxy 1 represents an oxide selected from ZnO, MgO, NbO 2.5 , WO 3 , NiO, SnO, TiO 2 , BiO 1.5 , AgO, CaO, MnO, or a mixture thereof, preferably selected from ZnO, MgO, AgO, BiO 1.5 , NbO 2.5 , or a mixture thereof, and Oxy 2 represents an oxide selected from Na 2 O, K 2 O or a mixture thereof, preferably Oxy 2 represents Na 2 O, and x is comprised between 0 and 98, and y is comprised between 0 and 60, and x and y are not simultaneously zero, and z is comprised between 0 and 20, preferably between 0 and 10, x, y, z are such that x + y + z is comprised between 40 and 98, a is comprised between 1 and 50, preferably between 1 and 25, b is comprised between 1 and 35, preferably between 1 and 25, and k is comprised between 1 and 7, preferably between 1 and 5, and x, y, z, a, b, and k are such that x + y + z + a + b + k = 100. Oxy 1 represents an oxide selected from ZnO, MgO, NbO 2.5 , WO 3 , NiO, SnO, TiO 2 , BiO 1.5 , AgO, CaO, MnO, or a mixture thereof, preferably selected from ZnO, MgO, AgO, BiO 1.5 , NbO 2.5 , or a mixture thereof, and Oxy 2 represents an oxide selected from Na 2 O, K 2 O or a mixture thereof, preferably Oxy 2 represents Na 2 O, and x is comprised between 0 and 98, and y is comprised between 0 and 60, and x and y are not simultaneously zero, and z is comprised between 0 and 20, preferably between 0 and 10, x, y, z are such that x + y + z is comprised between 40 and 98, a is comprised between 1 and 50, preferably between 1 and 25, b is comprised between 1 and 35, preferably between 1 and 25, and k is comprised between 1 and 7, preferably between 1 and 5, and x, y, z, a, b, and k are such that x + y + z + a + b + k = 100.
A method for monitoring a condition of a fleet of circuit breakers , including: (a) synchronously measuring at least one type of operating condition related signal for each of the circuit breakers , during their operation; (b) obtaining a set of feature data representing the respective measurements of operating condition related signal; (c) performing cluster analysis of the set of feature data based on a similarity threshold; the cluster analysis producing a number of one or more clusters; and (d) generating a signal indicating the condition of the fleet of circuit breakers based on the the number of clusters. (a) synchronously measuring at least one type of operating condition related signal for each of the circuit breakers , during their operation; (b) obtaining a set of feature data representing the respective measurements of operating condition related signal; (c) performing cluster analysis of the set of feature data based on a similarity threshold; the cluster analysis producing a number of one or more clusters; and (d) generating a signal indicating the condition of the fleet of circuit breakers based on the the number of clusters.
An energy storage device comprising: an electrode assembly ; a case configured to store the electrode assembly , the case having a wall shaped as an oblong rectangle with a long side extending in an X-axis direction; a conductive member (140; 150) electrically connected to the electrode assembly ; a first insulating member (120; 130) disposed between the wall of the case and the conductive member; and a projection protrudingly provided on the wall on an opposite side to the first insulating member (120; 130), wherein the projection protrudes toward an outside of the case , and wherein a recess is formed on the wall on an opposite side to the projection on a backside of the projection , the recess having a limiting portion and being formed as a long groove, wherein the first insulating member (120; 130) has a first engaging portion (120b; 130b) configured to engage with the limiting portion , wherein the projection and the recess are long in a transverse direction of the wall when viewed in a protruding direction, the transverse direction extending transverse to the X-axis direction, wherein the electrode assembly is formed by winding an electrode, and wherein the projection protrudes from the wall toward a direction which is opposite to the location of the electrode assembly and in a winding axis direction of the electrode assembly . an electrode assembly ; a case configured to store the electrode assembly , the case having a wall shaped as an oblong rectangle with a long side extending in an X-axis direction; a conductive member (140; 150) electrically connected to the electrode assembly ; a first insulating member (120; 130) disposed between the wall of the case and the conductive member; and a projection protrudingly provided on the wall on an opposite side to the first insulating member (120; 130), wherein the projection protrudes toward an outside of the case , and wherein a recess is formed on the wall on an opposite side to the projection on a backside of the projection , the recess having a limiting portion and being formed as a long groove, wherein the first insulating member (120; 130) has a first engaging portion (120b; 130b) configured to engage with the limiting portion , wherein the projection and the recess are long in a transverse direction of the wall when viewed in a protruding direction, the transverse direction extending transverse to the X-axis direction, wherein the electrode assembly is formed by winding an electrode, and wherein the projection protrudes from the wall toward a direction which is opposite to the location of the electrode assembly and in a winding axis direction of the electrode assembly .
A method for an extended periodic harvest comprising: i. establishing a cell culture by inoculating a bioreactor with mammalian cells expressing a recombinant protein, ii. maintaining the cell culture by perfusing fresh cell culture medium into the bioreactor, passing the cell culture through a filter and collecting a permeate, wherein a null permeate is initially collected until a first predetermined parameter is reached, at which time a harvest permeate is collected for a predetermined time, iii. this is followed by alternately collecting a null permeate until a second predetermined parameter is reached, then collecting a harvest permeate for a predetermined time, the harvest permeate comprising the recombinant protein, wherein the alternating collection of null permeate and harvest permeate continues until the cell culture is terminated; wherein the predetermined parameter is selected from time, viable cell density, packed cell volume or titer and wherein: (a) when the null permeate is collected, the filter is a hollow fiber filter having a pore size or molecular weight cut off that retains the recombinant protein in the bioreactor; and (b) when the harvest permeate is collected, the filter is a hollow fiber filter having a pore size or molecular weight cut off that does not retain the recombinant protein in the bioreactor. i. establishing a cell culture by inoculating a bioreactor with mammalian cells expressing a recombinant protein, ii. maintaining the cell culture by perfusing fresh cell culture medium into the bioreactor, passing the cell culture through a filter and collecting a permeate, wherein a null permeate is initially collected until a first predetermined parameter is reached, at which time a harvest permeate is collected for a predetermined time, iii. this is followed by alternately collecting a null permeate until a second predetermined parameter is reached, then collecting a harvest permeate for a predetermined time, the harvest permeate comprising the recombinant protein, (a) when the null permeate is collected, the filter is a hollow fiber filter having a pore size or molecular weight cut off that retains the recombinant protein in the bioreactor; and (b) when the harvest permeate is collected, the filter is a hollow fiber filter having a pore size or molecular weight cut off that does not retain the recombinant protein in the bioreactor.