mhurhangee/ep-ind-claims huggingface dataset:
A method of protecting against forgery of forms, the method comprising: (a) identifying, by an application firewall executing on an intermediary device deployed between a plurality of clients and one or more servers, whether a response from a server to a first request of a client is a form; (b) either: (i) if the response to the first request is not a form, transmitting, by the application firewall, the response to its intended recipient, subject to any other applicable security policy; or (ii) if the response to the first request is a first form, generating, by the application firewall, a form identifier for the first form that is unique and unpredictable among form identifiers transmitted via the intermediary device; (c) transmitting, by the application firewall to the client, the response comprising the form identifier embedded in the first form; (d) receiving, by the application firewall, a second request from the client to send form data for the first form to the server; and (e) determining, by the application firewall, whether to send the second request to the server based on whether the second request identifies the form identifier transmitted with the response. (a) identifying, by an application firewall executing on an intermediary device deployed between a plurality of clients and one or more servers, whether a response from a server to a first request of a client is a form; (b) either: (i) if the response to the first request is not a form, transmitting, by the application firewall, the response to its intended recipient, subject to any other applicable security policy; or (ii) if the response to the first request is a first form, generating, by the application firewall, a form identifier for the first form that is unique and unpredictable among form identifiers transmitted via the intermediary device; (i) if the response to the first request is not a form, transmitting, by the application firewall, the response to its intended recipient, subject to any other applicable security policy; or (ii) if the response to the first request is a first form, generating, by the application firewall, a form identifier for the first form that is unique and unpredictable among form identifiers transmitted via the intermediary device; (c) transmitting, by the application firewall to the client, the response comprising the form identifier embedded in the first form; (d) receiving, by the application firewall, a second request from the client to send form data for the first form to the server; and (e) determining, by the application firewall, whether to send the second request to the server based on whether the second request identifies the form identifier transmitted with the response.
Unwinding apparatus for unwinding wound material from a bobbin that is rotating about its longitudinal axis, wherein the wound material is unwound from a run-off point on the bobbin surface that varies during the unwinding, with a support device (2, 5; 40) for the bobbin, which is embodied in such a manner so that the bobbin is supported rotatably about a rotation axis that extends perpendicularly to the longitudinal axis, wherein registration means (10; 24; 31; 34, 35) for registering at least one variable (a), which corresponds to the position of the run-off point and/or a value derived from the position of the run-off point, as well as a rotation device (17, 18; 20, 21, 22; 26, 27; 29; 32; 36, 37, 38) for rotating the bobbin about the rotation axis dependent on the at least one variable (α) are provided, and the at least one variable (α) is a run-off angle (α) that is defined as the angle between the run-off point, a first deflection point of the unwound material, and a rotation point (d), wherein the rotation point (d) is that point on the said rotation axis that has the smallest spacing distance to the longitudinal axis of the bobbin, characterized in that the rotation device (17, 18; 20, 21, 22; 26, 27; 29; 32; 36, 37, 38) is embodied in such a manner so that the bobbin is rotated about the rotation axis by an angle that is dependent on the run-off angle (α) and amounts to half of the run-off angle (α).
A method for supporting localisation of a mobile device based on a local localisation map comprising a number of features, wherein each feature comprises location data and geometric characteristics of the feature, the method comprising: determining a local localisation map based on a location of the mobile device; finding, in the local localisation map, at least a first region and a second region which comprise similar features, based on an algorithm of a simultaneous localisation and mapping, SLAM, procedure which is usable by the mobile device to compare features derived from captured visual and/or structural data with features in the local localisation map; characterized by further comprising: modifying the local localisation map to reduce similarity between the first region and the second region, by reducing a weight of a plurality of features, each of which is in the first region or the second region and which is similar to another feature in the other of the first region and the second region, wherein the number of features for which weights are reduced in the first region is balanced with the number of features for which weights are reduced in the second region, wherein the weight defines an extent to which the associated feature is relied on for localisation of the mobile device; and transmitting the modified local localisation map to the mobile device. determining a local localisation map based on a location of the mobile device; finding, in the local localisation map, at least a first region and a second region which comprise similar features, based on an algorithm of a simultaneous localisation and mapping, SLAM, procedure which is usable by the mobile device to compare features derived from captured visual and/or structural data with features in the local localisation map; modifying the local localisation map to reduce similarity between the first region and the second region, by reducing a weight of a plurality of features, each of which is in the first region or the second region and which is similar to another feature in the other of the first region and the second region, wherein the number of features for which weights are reduced in the first region is balanced with the number of features for which weights are reduced in the second region, wherein the weight defines an extent to which the associated feature is relied on for localisation of the mobile device; and transmitting the modified local localisation map to the mobile device.
A gas turbine engine comprising: a conical hub for a fan of the gas turbine engine; a plurality of attachment features located on an outer circumferential surface of the conical hub, wherein at least some of the plurality attachment features are axially aligned with each other and at least some of the plurality of attachment features are off set from each other, and wherein each of the plurality of attachment features have an opening configured to receive a portion of a pin; a plurality of blades secured to the conical fan hub via the plurality of attachment features, wherein the opening of each of the plurality of attachment features is configured to receive the portion of the pin for securing the plurality of blades to the conical fan hub; and wherein the outer circumferential surface of the conical hub undulates and increases in diameter with respect to an axis of the conical hub in a forward to aft direction of the conical hub. a conical hub for a fan of the gas turbine engine; a plurality of attachment features located on an outer circumferential surface of the conical hub, wherein at least some of the plurality attachment features are axially aligned with each other and at least some of the plurality of attachment features are off set from each other, and wherein each of the plurality of attachment features have an opening configured to receive a portion of a pin; a plurality of blades secured to the conical fan hub via the plurality of attachment features, wherein the opening of each of the plurality of attachment features is configured to receive the portion of the pin for securing the plurality of blades to the conical fan hub; and wherein the outer circumferential surface of the conical hub undulates and increases in diameter with respect to an axis of the conical hub in a forward to aft direction of the conical hub.
An information processing apparatus comprising: a request generation section that generates a command assigning a media type and attribute for an initialization segment file and generates an MPD (Media Presentation Description) request with a header including the command; and a transmission section that transmits the MPD request including the command to request a different information processing apparatus to transmit an MPD file that manages a content possessing a plurality of attributes and the initialization segment file of the content possessing said media type and said attribute; wherein when the request generation section generates an MPD request not including said command, the transmission section transmits the MPD request not including said command, to request that the different information processing apparatus transmits said MPD file without transmitting the initialization segment file. a request generation section that generates a command assigning a media type and attribute for an initialization segment file and generates an MPD (Media Presentation Description) request with a header including the command; and a transmission section that transmits the MPD request including the command to request a different information processing apparatus to transmit an MPD file that manages a content possessing a plurality of attributes and the initialization segment file of the content possessing said media type and said attribute; wherein when the request generation section generates an MPD request not including said command, the transmission section transmits the MPD request not including said command, to request that the different information processing apparatus transmits said MPD file without transmitting the initialization segment file.
A conductive silicone composition comprising: a catalyst-type conductive rubber composition containing 100 parts by weight of catalyst-type liquid silicone and 0.5 to 2.5 parts by weight of carbon nanotubes; and a crosslinking-type conductive rubber composition containing 100 parts by weight of crosslinking-type liquid silicone and 0.5 to 2.5 parts by weight of carbon nanotubes, wherein the initial viscosity of each of the catalyst-type liquid silicone and the crosslinking-type liquid silicone is 5,000 to 41,000 CP, the average viscosity of the conductive rubber compositions is 80,000 to 350,000 cP, the viscosity difference between the initial viscosity of the liquid silicones and the average viscosity of the conductive rubber compositions is 70,000 to 310,000, and the viscosity was measured at a temperature of 25°C and a shear rate of 10 s -1. a catalyst-type conductive rubber composition containing 100 parts by weight of catalyst-type liquid silicone and 0.5 to 2.5 parts by weight of carbon nanotubes; and a crosslinking-type conductive rubber composition containing 100 parts by weight of crosslinking-type liquid silicone and 0.5 to 2.5 parts by weight of carbon nanotubes, wherein the initial viscosity of each of the catalyst-type liquid silicone and the crosslinking-type liquid silicone is 5,000 to 41,000 CP, the average viscosity of the conductive rubber compositions is 80,000 to 350,000 cP, the viscosity difference between the initial viscosity of the liquid silicones and the average viscosity of the conductive rubber compositions is 70,000 to 310,000, and the viscosity was measured at a temperature of 25°C and a shear rate of 10 s -1.
An internal high hardness type pearlitic rail comprising a composition consisting of 0.73% to 0.85% by mass C, 0.5% to 0.75% by mass Si, 0.3% to 1.0% by mass Mn, 0.035% by mass or less P, 0.0005% to 0.012% by mass S, 0.2% to 1.3% by mass Cr, further optionally containing one or two or more elements selected from 0.001% to 0.30% by mass V, 0.005 to 1.0% by mass Cu, 0.005 to 1.0% by mass Ni, 0.001% to 0.05% by mass Nb, and 0.005 to 0.5% by mass Mo, and the balance being Fe and incidental impurities, comprising 0.006% by mass or less of N, 0.004% by mass or less of O and 0.0010% by mass or less of Ti; wherein the value of [%Mn]/[%Cr] is greater than or equal to 0.3 and less than 1.0, where [%Mn] represents the Mn content, and [%Cr] represents the Cr content, characterized in that the internal hardness of a rail head is defined by the Vickers hardness of a portion located from a surface layer of the rail head to a depth of 25 mm and is greater than or equal to 380Hv and less than 480Hv and the lamellar spacing of a pearlite layer in the portion located from the surface layer of the rail head to a depth of 25 mm is in the range of 0.04 to 0.15 μm.
Dishwasher having at least one wash system (51, 52) designed in the form of a recirculation circuit, the dishwasher being a commercial dishwasher or utensil washer which is designed in the form of a conveyor dishwasher, wherein the at least one wash system (51,52) has a nozzle system with at least one wash nozzle (13-1, 13-2) for spraying wash liquid onto the was ware which is to be cleaned, also has a wash tank (14; 14-1, 14-2) for collecting at least some of the sprayed wash liquid, and additionally has a wash pump (11; 11-1, 11-2) by means of which wash liquid collected in the wash tank (14; 14-1, 14-2) is fed to the at least one wash nozzle (13-1, 13-2), and wherein there is also a dirt-collecting system which is assigned to the at least one wash system (51, 52) and has at least one screen (20; 20-1, 20-2), in order to separate off particles of dirt from the was liquid which has been sprayed and flowed back into the wash tank (14; 14-1, 14-2) under gravitational force, wherein the dirt-collecting system also has a dirt-collecting region which is arranged in the wash system (51, 52) and is intended for collecting the particles of dirt which have been separated off from the wash liquid, characterized in that the particles of dirt have been separated off from the wash liquid with the aid of a tank-covering screen (20; 20-1, 20-2), wherein the dirt-collecting region is open at the top, but closed all the way around the sides, and wherein there is also a dirt-discharging pipe system (72, 73; 72-1, 73-1; 72-2, 73-2) which is connected to the dirt-collecting region and by means of which the particles of dirt collected in the dirt-collecting region are discharged from the wash system (51, 52), and wherein the dirt-collecting system has at least one dirty-water pump (74; 74-1, 74-2) which is arranged in the dirt-discharging pipe system (72, 73; 72-1, 73-1; 72-2, 73-2) and by means of which particles of dirt collected in the dirt-collecting region are fed to a dirt-collecting container formed outside the wash system (51, 52) or to a waste-disposal system formed outside the dishwasher, wherein the dirty-water pump (74; 74-1, 74-2) is configured in order that particles of dirt collected in the dirt-collecting region are channelled out of the wash system (51, 52) automatically continuously or at predetermined times or in the case of predetermined events, wherein there is also a control means provided for activating the dirty-water pump (74; 74-1, 74-2) in dependence on the quantity of particles of dirt collected in the dirt-collecting region, on the level in the dirt-collecting region, on the level in the wash tank, on the transporting speed at which the wash ware is transported through the conveyor dishwasher or on other factors.
Process of testing a cable set (150, 250) comprising a plurality of networks (157, 158, 159, 160) for an electrical system of a vehicle, at least one of the networks (157, 158, 159, 160) comprising a plurality of electrical assemblies (161, 162), comprising the steps of: Application of an AC voltage signal (102, 202) to the networks (157, 158, 159, 160), Measurement of the current and voltage for each of the networks (157, 158, 159, 160) to which the AC voltage signal (102, 202) is applied, Comparison of voltage-current characteristics of the respective networks (157, 158, 159, 160) generated on the basis of the respective measured current and the respective measured voltage with a predetermined nominal voltage-current characteristic curve(106, 206) for the respective network (157, 158, 159, 160), and Output of an error message (107, 207) if one of the voltage-current characteristics generated on the basis of the respectively measured current and the respectively measured voltage deviates from the corresponding target voltage-current characteristic curve (106, 206) by more than a predetermined threshold value. Application of an AC voltage signal (102, 202) to the networks (157, 158, 159, 160), Measurement of the current and voltage for each of the networks (157, 158, 159, 160) to which the AC voltage signal (102, 202) is applied, Comparison of voltage-current characteristics of the respective networks (157, 158, 159, 160) generated on the basis of the respective measured current and the respective measured voltage with a predetermined nominal voltage-current characteristic curve(106, 206) for the respective network (157, 158, 159, 160), and Output of an error message (107, 207) if one of the voltage-current characteristics generated on the basis of the respectively measured current and the respectively measured voltage deviates from the corresponding target voltage-current characteristic curve (106, 206) by more than a predetermined threshold value.
A shaft furnace for firing, in particular, carbonate-containing material, comprising, in the flow direction of the material, a preheating zone, at least one firing zone, a cooling zone, and a material outlet for discharging the material from the shaft furnace, a plurality of burner lances (32, 34; 54) which project into the firing zone, where at least one burner lance has a first penetration depth into the firing zone and at least one further burner lance has a second penetration depth into the firing zone which is greater than the first penetration depth, at least one primary air conduit (36, 38) for conveying combustion air, which is connected to at least one burner lance (32, 34; 54), characterized in that the shaft furnace comprises an oxygen conduit for conveying oxygen into the firing zone and the oxygen conduit is arranged in such a way that oxygen flows from the oxygen conduit to at least one burner lance having the second penetration depth, where the primary air conduit (36, 38) comprises a first primary air conduit for conveying combustion air which is connected to the burner lance having the first penetration depth and a second primary air conduit for conveying combustion air which is connected to the burner lance having the second penetration depth and the oxygen conduit is connected exclusively to the second primary air conduit so that oxygen flows from the oxygen conduit into the second primary air conduit. a plurality of burner lances (32, 34; 54) which project into the firing zone, where at least one burner lance has a first penetration depth into the firing zone and at least one further burner lance has a second penetration depth into the firing zone which is greater than the first penetration depth, at least one primary air conduit (36, 38) for conveying combustion air, which is connected to at least one burner lance (32, 34; 54), characterized in that the shaft furnace comprises an oxygen conduit for conveying oxygen into the firing zone and the oxygen conduit is arranged in such a way that oxygen flows from the oxygen conduit to at least one burner lance having the second penetration depth, where the primary air conduit (36, 38) comprises a first primary air conduit for conveying combustion air which is connected to the burner lance having the first penetration depth and a second primary air conduit for conveying combustion air which is connected to the burner lance having the second penetration depth and the oxygen conduit is connected exclusively to the second primary air conduit so that oxygen flows from the oxygen conduit into the second primary air conduit.
A method of achieving an identity and location separation network, adapted for an Evolved Packet System, EPS, network of an identity and location separation technology, the method comprising: an EPS network side network element acquiring an Access Identifier, AID, of a User Equipment, UE, and transmitting the acquired AID to the UE (502, 608,707); a Packet Data Network Gateway, P-GW, to which the UE is attached allocating a subnet prefix for the UE, and transmitting the subnet prefix to the UE; the UE combining an IPv6 address by using the AID as an interface identifier part of the IPv6 address and the subnet prefix as a subnet prefix part of the IPv6 address, and using the combined IPv6 address to configure an IPv6 address of the UE (506, 611, 710); and after determining the P-GW to which the UE is attached, the EPS network side network element allocating a Routing Identifier, RID, for the UE, wherein the RID is the subnet prefix of an IPv6 address pointing to the P-GW; and the EPS network side network element transmitting the RID of the UE to an Identity Location Register, ILR, which stores a mapping relationship between the AID and the RID of the UE. an EPS network side network element acquiring an Access Identifier, AID, of a User Equipment, UE, and transmitting the acquired AID to the UE (502, 608,707); a Packet Data Network Gateway, P-GW, to which the UE is attached allocating a subnet prefix for the UE, and transmitting the subnet prefix to the UE; the UE combining an IPv6 address by using the AID as an interface identifier part of the IPv6 address and the subnet prefix as a subnet prefix part of the IPv6 address, and using the combined IPv6 address to configure an IPv6 address of the UE (506, 611, 710); and after determining the P-GW to which the UE is attached, the EPS network side network element allocating a Routing Identifier, RID, for the UE, wherein the RID is the subnet prefix of an IPv6 address pointing to the P-GW; and the EPS network side network element transmitting the RID of the UE to an Identity Location Register, ILR, which stores a mapping relationship between the AID and the RID of the UE.