mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a lamella for a plate heat exchanger, said method comprising the following steps: a) providing a corrugated structure from a formed metal sheet, in particular a bend-formed metal sheet, having at least one wave crest having wave flanks , wherein the wave crest and the wave flanks are in each case connected by way of a metal-sheet edge , and wherein the metal-sheet edge has an internal radius (R2) and an external radius (R1), characterized by b) compression-forming, preferably cold-extruding, the at least one wave crest having wave flanks of the corrugated structure from step a) in such a manner that the external radius (R1) of the metal-sheet edges between the wave crest and the respective wave flank is reduced (R101). a) providing a corrugated structure from a formed metal sheet, in particular a bend-formed metal sheet, having at least one wave crest having wave flanks , wherein the wave crest and the wave flanks are in each case connected by way of a metal-sheet edge , and wherein the metal-sheet edge has an internal radius (R2) and an external radius (R1), characterized by b) compression-forming, preferably cold-extruding, the at least one wave crest having wave flanks of the corrugated structure from step a) in such a manner that the external radius (R1) of the metal-sheet edges between the wave crest and the respective wave flank is reduced (R101).
A method for forming a solid object, the method comprising the steps of: a. providing a first mixture comprising a first particulate component and at least one selected from the group consisting of a carbohydrate and cellulose, wherein the first particulate component is an inert support of silica sand, silica gel, vermiculite, fireclay, or other porous ceramic; b. providing an acid, selected from the group consisting of sulfuric acid, sulfonic acid, and chlorosulfonic acid; c. combining the first mixture and the acid to react the acid and the at least one selected from the group consisting of a carbohydrate and cellulose to form a first reactive component, wherein the first reactive component is a particulate comprising a dry oligomeric catalyst that is chemically distinct from the acid and the at least one selected from the group consisting of a carbohydrate and cellulose; d. dispensing a substantially flat layer of the first reactive component onto a build surface; and e. applying a liquid binder comprising a second reactive component onto at least a portion of the flat layer, wherein the second reactive component comprises a furan monomer. a. providing a first mixture comprising a first particulate component and at least one selected from the group consisting of a carbohydrate and cellulose, wherein the first particulate component is an inert support of silica sand, silica gel, vermiculite, fireclay, or other porous ceramic; b. providing an acid, selected from the group consisting of sulfuric acid, sulfonic acid, and chlorosulfonic acid; c. combining the first mixture and the acid to react the acid and the at least one selected from the group consisting of a carbohydrate and cellulose to form a first reactive component, wherein the first reactive component is a particulate comprising a dry oligomeric catalyst that is chemically distinct from the acid and the at least one selected from the group consisting of a carbohydrate and cellulose; d. dispensing a substantially flat layer of the first reactive component onto a build surface; and e. applying a liquid binder comprising a second reactive component onto at least a portion of the flat layer, wherein the second reactive component comprises a furan monomer.
Sheet metal having a deterministic surface structure , the surface structure being impressed into the sheet metal , the surface structure having at least one peak region (1.1) and at least one valley region (1.2), the peak region (1.1) and the valley region (1.2) being joined by a flank region (1.3), the peak region (1.1) and/or the valley region (1.2) having a substructure (1.11, 1.21), characterized in that the substructure (1.11, 1.21) has a surface area greater by at least 3% in comparison to a flat projection face (P) of the peak region (1.1) and/or of the valley region (1.2) or having an Sdr of at least 3%.
A heat exchanger arrangement for a gas turbine engine comprising: a heat exchanger (400; 502; 802); a plurality of pipes comprising, a plurality of inlet pipes comprising a hot-side inlet ; and a plurality of outlet pipes comprising a hot-side outlet ; characterized by a cold-side inlet ; a cold-side outlet , the cold-side inlet and the cold-side outlet being for conducting a cooling air in a fan bypass flow path to transfer heat from air in the heat exchanger (400; 502; 802) to the cooling air; and a statically determined six degrees of freedom mounting system comprising a plurality of links (520, 522, 524; 804) coupled to the heat exchanger (400; 502; 802) and configured to be coupled directly to a diffuser case , wherein the plurality of links (520, 522, 524; 804) provide six mounting points for the heat exchanger (400; 502; 802) that prevent movement of the heat exchanger (400; 502; 802) in each of the six degrees of freedom and wherein the heat exchanger arrangement prevents an over-determined system to allow for thermal growth during operation. a heat exchanger (400; 502; 802); a plurality of pipes comprising, a plurality of inlet pipes comprising a hot-side inlet ; and a plurality of outlet pipes comprising a hot-side outlet ; a plurality of inlet pipes comprising a hot-side inlet ; and a plurality of outlet pipes comprising a hot-side outlet ; characterized by a cold-side inlet ; a cold-side outlet , the cold-side inlet and the cold-side outlet being for conducting a cooling air in a fan bypass flow path to transfer heat from air in the heat exchanger (400; 502; 802) to the cooling air; and a statically determined six degrees of freedom mounting system comprising a plurality of links (520, 522, 524; 804) coupled to the heat exchanger (400; 502; 802) and configured to be coupled directly to a diffuser case , wherein the plurality of links (520, 522, 524; 804) provide six mounting points for the heat exchanger (400; 502; 802) that prevent movement of the heat exchanger (400; 502; 802) in each of the six degrees of freedom and wherein the heat exchanger arrangement prevents an over-determined system to allow for thermal growth during operation.
A method for angle detection and coating analysis comprising: receiving with a digital camera a first image of a light-based protractor positioned adjacent to or on a physical coating surface, wherein the light-based protractor comprises a physical device that aids in a measurement of viewing angles through a use of light reflection, refraction, transmission, scattering, and/or polarization; parsing with a computer processor, the first image to identify the light-based protractor positioned adjacent to or on the physical coating surface; identifying a particular angular indication being displayed by the light-based protractor; mapping the particular angular indication to a particular viewing angle at which the digital camera captured the first image with respect to the light-based protractor; parsing , with a processor, the first image to identify a target color of the physical coating surface; parsing with the computer processor, the first image to identify one or more target coating texture characteristics of the physical coating surface; acessing , within a coating database, one or more coatings associated with the target color, wherein each of the one or more coatings is associated with data structures that indicate angle-specific proposed coating texture characteristics at the particular viewing angle; identifying , within the coating database, a proposed coating that comprises a proposed color that matches the target color and proposed coating characteristics that match the one or more target coating texture characteristics; and displaying , on a user interface, the proposed coating. receiving with a digital camera a first image of a light-based protractor positioned adjacent to or on a physical coating surface, wherein the light-based protractor comprises a physical device that aids in a measurement of viewing angles through a use of light reflection, refraction, transmission, scattering, and/or polarization; parsing with a computer processor, the first image to identify the light-based protractor positioned adjacent to or on the physical coating surface; identifying a particular angular indication being displayed by the light-based protractor; mapping the particular angular indication to a particular viewing angle at which the digital camera captured the first image with respect to the light-based protractor; parsing , with a processor, the first image to identify a target color of the physical coating surface; parsing with the computer processor, the first image to identify one or more target coating texture characteristics of the physical coating surface; acessing , within a coating database, one or more coatings associated with the target color, wherein each of the one or more coatings is associated with data structures that indicate angle-specific proposed coating texture characteristics at the particular viewing angle; identifying , within the coating database, a proposed coating that comprises a proposed color that matches the target color and proposed coating characteristics that match the one or more target coating texture characteristics; and displaying , on a user interface, the proposed coating.
An offloading policy negotiation method, comprising: sending , by a user equipment, UE, an offloading policy to a core network device, wherein the offloading policy comprises at least one of the following: a default access indication or at least one routing rule; and receiving and storing , by the UE, an acknowledged offloading policy returned for the offloading policy by the core network device, and transmitting a data flow based on the acknowledged offloading policy; wherein the routing rule comprises a routing access technology, flow description information, a negotiation indication, and first routing rule identifier information, wherein the first routing rule identifier information is at least one of a rule name or a rule priority; and wherein the negotiation indication is used to identify permission of the UE for modifying the routing rule, and a value is a "negotiation allowed" identifier or a "negotiation forbidden" identifier, wherein when the value of the negotiation indication is the "negotiation allowed" identifier, it indicates that the UE selects the routing access technology in the routing rule or another access technology, or when the value of the negotiation indication is the "negotiation forbidden" identifier, it indicates that the UE selects the routing access technology in the routing rule and that the routing rule to which the negotiation indication belongs is a nonnegotiable routing rule . sending , by a user equipment, UE, an offloading policy to a core network device, wherein the offloading policy comprises at least one of the following: a default access indication or at least one routing rule; and receiving and storing , by the UE, an acknowledged offloading policy returned for the offloading policy by the core network device, and transmitting a data flow based on the acknowledged offloading policy; wherein the routing rule comprises a routing access technology, flow description information, a negotiation indication, and first routing rule identifier information, wherein the first routing rule identifier information is at least one of a rule name or a rule priority; and wherein the negotiation indication is used to identify permission of the UE for modifying the routing rule, and a value is a "negotiation allowed" identifier or a "negotiation forbidden" identifier, wherein when the value of the negotiation indication is the "negotiation allowed" identifier, it indicates that the UE selects the routing access technology in the routing rule or another access technology, or when the value of the negotiation indication is the "negotiation forbidden" identifier, it indicates that the UE selects the routing access technology in the routing rule and that the routing rule to which the negotiation indication belongs is a nonnegotiable routing rule .
A computer-implemented method for modifying file backups in response to detecting potential ransomware, at least a portion of the method being performed by a computing device comprising at least one processor, the method comprising: detecting, during a file backup process, an anomaly that is potentially indicative of ransomware on the computing device; in response to detecting the anomaly that is potentially indicative of ransomware, storing a backup copy in a separate location from other backup copies; confirming that the anomaly is indicative of ransomware on the computing device; adjusting a backup policy in response to confirming that the anomaly is indicative of ransomware on the computing device; managing the backup copy based on the adjusted backup policy. detecting, during a file backup process, an anomaly that is potentially indicative of ransomware on the computing device; in response to detecting the anomaly that is potentially indicative of ransomware, storing a backup copy in a separate location from other backup copies; confirming that the anomaly is indicative of ransomware on the computing device; adjusting a backup policy in response to confirming that the anomaly is indicative of ransomware on the computing device; managing the backup copy based on the adjusted backup policy.
A bag checking machine with a sorting module, installed before the bag can enter the checking machine, and which comprises driving means that activate the module characterized in that said module comprises: - a pressure roller that puts pressure on the bags as they pass through under said pressure roller , which has an ascending and a descending motion - a first input roller connected to conveyance means of the checking machine and to the pressure roller , and - at least one automatic or manually-operated diverter element positioned below said pressure roller , which has at least two positions, a first upward position that blocks the passing of the bags towards the conveyance means and guides the bags towards another predetermined destination, and a second downward position that defines a passage formed by the conveyance means while said diverter element blocks the passing of the bags towards the other predetermined destination and guides the bags towards the passage . - a pressure roller that puts pressure on the bags as they pass through under said pressure roller , which has an ascending and a descending motion - a first input roller connected to conveyance means of the checking machine and to the pressure roller , and - at least one automatic or manually-operated diverter element positioned below said pressure roller , which has at least two positions, a first upward position that blocks the passing of the bags towards the conveyance means and guides the bags towards another predetermined destination, and a second downward position that defines a passage formed by the conveyance means while said diverter element blocks the passing of the bags towards the other predetermined destination and guides the bags towards the passage .
A monolithic three-dimensional memory device, comprising: a first alternating stack of first insulating layers and first electrically conductive layers located over a top surface of a substrate ; an insulating cap layer overlying the first alternating stack ; a second alternating stack of second insulating layers and second electrically conductive layers overlying the insulating cap layer ; and a memory stack structure extending through the second alternating stack , the insulating cap layer , and the first alternating stack and comprising a semiconductor channel and a memory film including a plurality of charge storage regions, characterized in that : the insulating cap layer comprises a first concave surface having a first radius of curvature (R1), laterally surrounding the memory stack structure , and adjoined to an upper periphery of a substantially vertical sidewall of the memory stack structure within the first alternating stack ; and the insulating cap layer comprises a second concave surface having a second radius of curvature (R2) that is greater than the first radius of curvature (R1), laterally surrounding the memory stack structure , and adjoined to an upper periphery of the first concave surface, such that the memory stack structure is not having an horizontal portion adjacent to the insulating cap layer . a first alternating stack of first insulating layers and first electrically conductive layers located over a top surface of a substrate ; an insulating cap layer overlying the first alternating stack ; a second alternating stack of second insulating layers and second electrically conductive layers overlying the insulating cap layer ; and a memory stack structure extending through the second alternating stack , the insulating cap layer , and the first alternating stack and comprising a semiconductor channel and a memory film including a plurality of charge storage regions, characterized in that : the insulating cap layer comprises a first concave surface having a first radius of curvature (R1), laterally surrounding the memory stack structure , and adjoined to an upper periphery of a substantially vertical sidewall of the memory stack structure within the first alternating stack ; and the insulating cap layer comprises a second concave surface having a second radius of curvature (R2) that is greater than the first radius of curvature (R1), laterally surrounding the memory stack structure , and adjoined to an upper periphery of the first concave surface, such that the memory stack structure is not having an horizontal portion adjacent to the insulating cap layer . the insulating cap layer comprises a second concave surface having a second radius of curvature (R2) that is greater than the first radius of curvature (R1), laterally surrounding the memory stack structure , and adjoined to an upper periphery of the first concave surface, such that the memory stack structure is not having an horizontal portion adjacent to the insulating cap layer .
An information processing method, comprising: receiving , by a network device, a first message for slice authentication sent by an Access and Mobility Management Function, AMF, wherein the first message comprises a first slice identifier, a first slice user identifier and a first card user identifier; determining a first pseudo code and a first address of an authentication server corresponding to the first slice identifier, and generating a second message comprising the first pseudo code, the first slice user identifier and the first card user identifier, wherein the first pseudo code does not carry privacy information, the first pseudo code and the first slice user identifier in the second message are configured to determine authentication authorization information, and the first pseudo code corresponds to the first slice identifier for slice authentication; and sending the second message to the authentication server based on the first address; wherein before sending the second message to the authentication server, after a terminal user registers one certain slice service, the authentication authorization information, the corresponding first slice user identifier and the corresponding first pseudo code are stored in the authentication server. receiving , by a network device, a first message for slice authentication sent by an Access and Mobility Management Function, AMF, wherein the first message comprises a first slice identifier, a first slice user identifier and a first card user identifier; determining a first pseudo code and a first address of an authentication server corresponding to the first slice identifier, and generating a second message comprising the first pseudo code, the first slice user identifier and the first card user identifier, wherein the first pseudo code does not carry privacy information, the first pseudo code and the first slice user identifier in the second message are configured to determine authentication authorization information, and the first pseudo code corresponds to the first slice identifier for slice authentication; and sending the second message to the authentication server based on the first address; wherein before sending the second message to the authentication server, after a terminal user registers one certain slice service, the authentication authorization information, the corresponding first slice user identifier and the corresponding first pseudo code are stored in the authentication server.
A slow feeder comprising; a container for, in use, containing food for an animal, the container having a side wall through which a slot is defined; a feeding restrictor for, in use, resting on top of the food; and a retaining element which is movably engageable with an outer portion of the container; characterised in that the feeding restrictor is removably couplable to the retaining element. a container for, in use, containing food for an animal, the container having a side wall through which a slot is defined; a feeding restrictor for, in use, resting on top of the food; and a retaining element which is movably engageable with an outer portion of the container; characterised in that the feeding restrictor is removably couplable to the retaining element.
Wiper device, in particular windscreen wiper device, having a wiper arm adapter and having a wiper blade adapter , and having a wiper arm channel element of a spray unit , wherein the wiper arm adapter is provided for coupling to the wiper blade adapter in the main extension direction of the wiper blade adapter , and wherein the wiper arm channel element is provided for coupling to a wiper blade channel element of the wiper blade adapter in a main extension direction of the wiper blade adapter , wherein the main extension direction of the wiper blade adapter runs parallel to a longest edge of a smallest geometric cuboid which only just completely encloses the wiper blade adapter , characterized in that the wiper blade adapter has at least one spray nozzle element which is configured at least partially integrally with the wiper blade channel element , wherein the spray nozzle element is covered by a base body of the wiper blade adapter , at least to a large extent, when viewed in a direction perpendicular to a wiping surface.
Damping device, in particular for damping or preventing pressure surges, such as pulsations, in hydraulic supply circuits, with a damping housing surrounding a damping space, which damping housing has at least one fluid inlet and one fluid outlet as well as a damping tube located in the flow path therebetween and, in order to form a Helmholtz resonator, has, in a region located within its length, at least one branch opening which passes through a tube wall and leads to a Helmholtz volume within the damping housing , wherein a fluid filter is arranged withing the damping housing in the flow path running between the fluid inlet and the fluid outlet , characterised in that , for forming a plurality of Helmholtz resonators, the space between the outside of the damping tube and the inside of the damping housing is divided into a plurality of separate chambers , each of which is connected to the internal space of the damping tube via at least one branch opening in the wall thereof, and in that the branch openings of successive chambers each have increasing opening cross-sections in the direction of flow starting from the fluid inlet .