mhurhangee/ep-ind-claims huggingface dataset:
A mounting mechanism for mounting a telecommunications chassis to a telecommunications fixture, the mounting mechanism comprising: a mounting bracket defining a rear portion configured for mounting to the telecommunications fixture and a front portion configured to slidably receive the telecommunications chassis, the front portion including a latch opening; a locking spring configured to be mounted to the telecommunications chassis, the locking spring defining a portion configured to flex laterally to snap in to the latch opening; a release handle configured to be mounted to the telecommunications chassis, characterised in that the release handle is configured to be slidably mounted to the telecommunications chassis, the release handle defining a deflection tab for moving the locking spring out of the latch opening of the mounting bracket when the release handle is slid along a rearward to forward direction with respect to the telecommunications chassis; and in that the mounting mechanism further comprises a cover configured to be mounted to the telecommunications chassis, the cover defining a deflection ramp configured to interact with the deflection tab of the release handle for moving the deflection tab laterally to contact the locking spring when the release handle is slid with respect to the telecommunications chassis. a mounting bracket defining a rear portion configured for mounting to the telecommunications fixture and a front portion configured to slidably receive the telecommunications chassis, the front portion including a latch opening; a locking spring configured to be mounted to the telecommunications chassis, the locking spring defining a portion configured to flex laterally to snap in to the latch opening; a release handle configured to be mounted to the telecommunications chassis, characterised in that the release handle is configured to be slidably mounted to the telecommunications chassis, the release handle defining a deflection tab for moving the locking spring out of the latch opening of the mounting bracket when the release handle is slid along a rearward to forward direction with respect to the telecommunications chassis; and in that the mounting mechanism further comprises a cover configured to be mounted to the telecommunications chassis, the cover defining a deflection ramp configured to interact with the deflection tab of the release handle for moving the deflection tab laterally to contact the locking spring when the release handle is slid with respect to the telecommunications chassis.
A silicon carbide device, comprising: a gate electrode disposed over a portion of a silicon carbide substrate; a dielectric film disposed over the gate electrode; a contact region of the silicon carbide device disposed near the gate electrode, the contact region including a base of a well of the silicon carbide substrate, the base of the well being doped with a first conductivity type, and two regions on opposite sides of the base of the well, the two regions being doped with the second conductivity type opposite the first conductivity type; and a plurality of layers (62,100,102) disposed over the contact region of the silicon carbide device, wherein the plurality of layers are configured to provide an ohmic contact to the contact region of the silicon carbide device, wherein the plurality of layers extend over an entirety of an upper surface of the base of the well and directly contacts the upper surface of the base of the well and across at least portions of each of the two regions on opposite sides of the base of the well, wherein the plurality of layers comprise a titanium/aluminium layer disposed on a first portion of the base of the well of the contact region of the silicon carbide device; and wherein the plurality of layers further comprise nickel silicide layers disposed on portions of the two regions and directly contacting an upper surface of a second portion of the base of the well of the contact region of the silicon carbide device. a gate electrode disposed over a portion of a silicon carbide substrate; a dielectric film disposed over the gate electrode; a contact region of the silicon carbide device disposed near the gate electrode, the contact region including a base of a well of the silicon carbide substrate, the base of the well being doped with a first conductivity type, and two regions on opposite sides of the base of the well, the two regions being doped with the second conductivity type opposite the first conductivity type; and a plurality of layers (62,100,102) disposed over the contact region of the silicon carbide device, wherein the plurality of layers are configured to provide an ohmic contact to the contact region of the silicon carbide device, wherein the plurality of layers extend over an entirety of an upper surface of the base of the well and directly contacts the upper surface of the base of the well and across at least portions of each of the two regions on opposite sides of the base of the well, wherein the plurality of layers comprise a titanium/aluminium layer disposed on a first portion of the base of the well of the contact region of the silicon carbide device; and wherein the plurality of layers further comprise nickel silicide layers disposed on portions of the two regions and directly contacting an upper surface of a second portion of the base of the well of the contact region of the silicon carbide device.
A projectile arresting module comprising: - a base frame forming a floor and a back wall of the projectile arresting module, - partition walls extending in a direction substantially perpendicular to the back wall, the partition walls comprising a back edge attached to the base frame, and a front edge, - stopping material positioned between the partition walls, and wherein the projectile arresting module further comprises - a pressure resisting wall comprising o horizontal support elements attached to the front edge of the partition walls, and o a tight row (25, 27) of vertical hollow sections connected to the horizontal support elements. - a base frame forming a floor and a back wall of the projectile arresting module, - partition walls extending in a direction substantially perpendicular to the back wall, the partition walls comprising a back edge attached to the base frame, and a front edge, - stopping material positioned between the partition walls, and - a pressure resisting wall comprising o horizontal support elements attached to the front edge of the partition walls, and o a tight row (25, 27) of vertical hollow sections connected to the horizontal support elements. o horizontal support elements attached to the front edge of the partition walls, and o a tight row (25, 27) of vertical hollow sections connected to the horizontal support elements.
A multi-functional olefin copolymer lubricant additive comprising a reaction product of an acylated olefin copolymer and an amino mono- or di-carboxylic acid, the reaction product optionally further reacted with a functionalization agent selected from an amine, ester, and alcohol, and wherein the amino mono- or di-carboxylic acid has the formula H 2 N-R 1 (R 2)-COOH wherein R 1 is a Cl to C18 hydrocarbyl group; and R 2 is hydrogen, a linear or branched alkyl group, an aryl group, a hydroxyphenyl group, a heterocyclic amino group, a carboxyl group, an amido group, an amino group, a hydroxyl group, a thiol, a thioester, selenium, or combinations thereof; wherein the olefin copolymer is an oil soluble linear or branched ethylene copolymer or terpolymer having a number average molecular weight between 50,000 and 200,000, as measured by GPC using polystyrene as reference. R 1 is a Cl to C18 hydrocarbyl group; and R 2 is hydrogen, a linear or branched alkyl group, an aryl group, a hydroxyphenyl group, a heterocyclic amino group, a carboxyl group, an amido group, an amino group, a hydroxyl group, a thiol, a thioester, selenium, or combinations thereof; wherein the olefin copolymer is an oil soluble linear or branched ethylene copolymer or terpolymer having a number average molecular weight between 50,000 and 200,000, as measured by GPC using polystyrene as reference.
A cleaning composition comprising: (a) from 5% to 50% of one or more non-soap surfactants by total weight of said cleaning composition, wherein the non-soap surfactants are anionic surfactants that include: (i) a C 10 -C 20 linear alkylbenzene sulphonate; and (ii) an alkyl sulphate having a branched or linear unalkoxylated alkyl group containing from about 6 to about 18 carbon atoms; (b) from 1.5% to 10% of soap particles by total weight of said cleaning composition, wherein said soap particles are characterized by a particle size distribution with from 35 wt% to 100 wt% of soap particles having particle sizes ranging from 125 microns to 355 microns. (a) from 5% to 50% of one or more non-soap surfactants by total weight of said cleaning composition, wherein the non-soap surfactants are anionic surfactants that include: (i) a C 10 -C 20 linear alkylbenzene sulphonate; and (ii) an alkyl sulphate having a branched or linear unalkoxylated alkyl group containing from about 6 to about 18 carbon atoms; (i) a C 10 -C 20 linear alkylbenzene sulphonate; and (ii) an alkyl sulphate having a branched or linear unalkoxylated alkyl group containing from about 6 to about 18 carbon atoms; (b) from 1.5% to 10% of soap particles by total weight of said cleaning composition, wherein said soap particles are characterized by a particle size distribution with from 35 wt% to 100 wt% of soap particles having particle sizes ranging from 125 microns to 355 microns.
Manifold arrangement of a heating or cooling system comprising a manifold and means for fixing the manifold to a part of a building, wherein the fixing means comprise a mounting rail which runs parallel to the manifold, characterized in that at least one mounting clip is clipped to the mounting rail, wherein the manifold is connected to the mounting clip which comprises a track arrangement running perpendicular to a longitudinal extension of the mounting rail and having a geometry, wherein the manifold comprises a mounting member with a corresponding counter geometry, configured for engagement with the track arrangement geometry.
A method for generating a channel code, in particular for a frame-header, for coding a signal at which a target value (∈) of Detection Error Rate is associated, said signal being delivered to a plurality of users, wherein said users are divided into a set of user types according to their link quality, each user type (i) being associated with a signal to noise ratio value (SNR i) and with a maximum value of the modulation and code rate corresponding to said target value (∈) of Detection Error Rate, wherein at least a code-word of said channel code is obtained by means of a concatenation of code-words of at least two constituent codes and said concatenation is performed on subsets of code-words of a first constituent code, having maximum length, with code-words of at least one second constituent code, wherein said constituent codes have a minimum distance ( d min) computed basing on said signal to noise ratio values (SNR i), on the number of user types and on said target value (∈) of Detection Error Rate, wherein said minimum distance is defined as d min ε SNR M = Q − 1 ε M − 1 2 2 ⋅ SNR, where Q is the Q -function, i.e. the complementary cumulative distribution function of the random variable standards.
Caliper disk brake having a brake caliper which has a first flange face, an actuating device which has a second flange face which bears against the first flange face in the flange-connected state, and a seal which, in the attached state, bears on one side against a first sealing face on the brake caliper, which first sealing face faces the actuating device, and bears on the other side against a second sealing face on the actuating device, which second sealing face lies opposite the first sealing face with regard to the seal and faces the brake caliper, characterized in that the second sealing face is arranged at a spacing from the plane of the second flange face.
A method for controlling play of a Customized Ring Back Tone, CRBT, comprising: receiving, by a CRBT platform, a play control instruction sent by a User Equipment, UE, carrying a rights identifier, wherein the rights identifier indicates whether the UE has rights to control CRBT play, and the rights are set by a called party who is called by the UE; and judging, by the CRBT platform, whether the identifier indicates that the UE has the rights to control CRBT play; and, sending, by the CRBT platform, the CRBT to the UE according to the play control instruction, if the identifier indicates that the UE has the rights to control CRBT play. receiving, by a CRBT platform, a play control instruction sent by a User Equipment, UE, carrying a rights identifier, wherein the rights identifier indicates whether the UE has rights to control CRBT play, and the rights are set by a called party who is called by the UE; and judging, by the CRBT platform, whether the identifier indicates that the UE has the rights to control CRBT play; and, sending, by the CRBT platform, the CRBT to the UE according to the play control instruction, if the identifier indicates that the UE has the rights to control CRBT play.
A vane pump having a stator and a rotor, wherein the rotor and the stator are displaceable relative to one another in order to realize an adjustment capability of the pump capacity of the vane pump which is independent of a drive speed of the rotor, and wherein the rotor has a base body and a plurality of vanes arranged so as to be distributed over the circumference of the base body, which vanes are held so as to be displaceable on the base body in a radial direction with respect to an axis of rotation of the rotor, characterized in that an end stop for the relative displaceability of the rotor and of the stator is formed by a contact of the stator with the rotor.
A method for the non-destructive testing of the volume of a test object, comprising the following method steps: a. recording a volume raw image of the test object by means of a suitable non-destructive imaging testing method, b. identifying the regions of the volume raw image that are not to be attributed to the test object material, c. checking an identified region as to whether it is completely embedded in regions that are to be associated with the test object material, and, if necessary, assimilating such a region to those regions that are to be associated with the test object material, forming a filled volume raw image, and d. generating the difference between the volume raw image and the filled volume raw image, forming a first flaw image; wherein the volume raw image is additionally processed as follows: e. applying a filter algorithm for amplifying possible flaw indicators, forming a filtered volume raw image, f. limiting the difference between the volume raw image and the filtered volume raw image, thereby forming a second flaw image and merging the first flaw image and the second flaw image into a combined flaw image; g. forming a volume reference image from volume raw images of one or more test object(s) which was/were classified to be "In order" on the basis of predefined test criteria, and h. generating the difference between, on the one hand, the first flaw image, the second flaw image or the combined flaw image and, on the other hand, the volume reference image. a. recording a volume raw image of the test object by means of a suitable non-destructive imaging testing method, b. identifying the regions of the volume raw image that are not to be attributed to the test object material, c. checking an identified region as to whether it is completely embedded in regions that are to be associated with the test object material, and, if necessary, assimilating such a region to those regions that are to be associated with the test object material, forming a filled volume raw image, and d. generating the difference between the volume raw image and the filled volume raw image, forming a first flaw image; wherein e. applying a filter algorithm for amplifying possible flaw indicators, forming a filtered volume raw image, f. limiting the difference between the volume raw image and the filtered volume raw image, thereby forming a second flaw image and merging the first flaw image and the second flaw image into a combined flaw image; g. forming a volume reference image from volume raw images of one or more test object(s) which was/were classified to be "In order" on the basis of predefined test criteria, and h. generating the difference between, on the one hand, the first flaw image, the second flaw image or the combined flaw image and, on the other hand, the volume reference image.
A voltage conversion circuit, wherein the voltage conversion circuit comprises an inductor, a first switch module, N second switch modules connected in series, N third switch modules connected in series, and N-1 flying capacitors, wherein N is an integer greater than or equal to 3; one terminal of the first switch module is separately connected to one terminal of the N second switch modules connected in series and one terminal of the N third switch modules connected in series, the other terminal of the N third switch modules connected in series is connected to a positive electrode of a high-voltage power supply, the other terminal of the first switch module and the other terminal of the N second switch modules connected in series are connected to a negative electrode of the high-voltage power supply, and a low-voltage power supply is connected to the two terminals of the first switch module through the inductor; and one terminal of an i th flying capacitor in the N-1 flying capacitors is connected to a connection point between an i th second switch module and an (i+1) th second switch module, the other terminal of the i th flying capacitor is connected to a connection point between an i th third switch module and an (i+1) th third switch module, and i is an integer greater than or equal to 1 and less than or equal to N-1; wherein the voltage conversion circuit is configured to adaptively select, based on a magnitude of a current output by the low-voltage power supply, one or more flying capacitors to participate in charging and discharging. one terminal of the first switch module is separately connected to one terminal of the N second switch modules connected in series and one terminal of the N third switch modules connected in series, the other terminal of the N third switch modules connected in series is connected to a positive electrode of a high-voltage power supply, the other terminal of the first switch module and the other terminal of the N second switch modules connected in series are connected to a negative electrode of the high-voltage power supply, and a low-voltage power supply is connected to the two terminals of the first switch module through the inductor; and one terminal of an i th flying capacitor in the N-1 flying capacitors is connected to a connection point between an i th second switch module and an (i+1) th second switch module, the other terminal of the i th flying capacitor is connected to a connection point between an i th third switch module and an (i+1) th third switch module, and i is an integer greater than or equal to 1 and less than or equal to N-1; wherein the voltage conversion circuit is configured to adaptively select, based on a magnitude of a current output by the low-voltage power supply, one or more flying capacitors to participate in charging and discharging.
A method for recovering power in a hydroprocessing process comprising: combining a hydrocarbon feed stream with a first portion of a hydrogen stream to form a combined feed stream; heating the combined feed stream; introducing the heated combined feed stream into a hydroprocessing reaction zone having at least two hydroprocessing beds (160, 165); contacting the combined heated feed stream with a first hydroprocessing catalyst at first hydroprocessing conditions to form a first hydroprocessed stream; combining a first part of a second portion of the hydrogen stream with the first hydroprocessed stream to form a first quenched hydroprocessed stream; contacting the first quenched hydroprocessed stream with a second hydroprocessing catalyst at second hydroprocessing conditions to form a second hydroprocessed stream; directing at least a portion of the at least second portion of the hydrogen stream through a power-recovery turbine to generate electric power therefrom. combining a hydrocarbon feed stream with a first portion of a hydrogen stream to form a combined feed stream; heating the combined feed stream; introducing the heated combined feed stream into a hydroprocessing reaction zone having at least two hydroprocessing beds (160, 165); contacting the combined heated feed stream with a first hydroprocessing catalyst at first hydroprocessing conditions to form a first hydroprocessed stream; combining a first part of a second portion of the hydrogen stream with the first hydroprocessed stream to form a first quenched hydroprocessed stream; contacting the first quenched hydroprocessed stream with a second hydroprocessing catalyst at second hydroprocessing conditions to form a second hydroprocessed stream; directing at least a portion of the at least second portion of the hydrogen stream through a power-recovery turbine to generate electric power therefrom.
A high-current connector, having a connector housing and a high-current contact element, wherein the high-current connector has a plug-in side and a connection side, wherein the high-current contact element is arranged in the interior of the connector housing, wherein the high-current contact element has a plug-in region (3.1) and a connection region (3.2), wherein an electrical conductor (5.0) of a high-current cable can be connected to the connection region (3.2), wherein the high-current cable can be fastened to the connection side of the high-current connector by means of a cable fastening, wherein the high-current connector has an insulating bush which is fastened or at least can be fastened to its connection side and has a cable connection-side hollow-cylindrical section (4.3) characterized in that the insulating bush has a connection-side funnel-like fastening section (4.4) for maintaining prespecified clearances and creepage paths, wherein the hollow-cylindrical section (4.3) of the insulating bush can be introduced between a stranded insulation (5.3) and a shielding braid (5.1) of the high-current cable at least in regions.
Method for determining a safe braking value of a rail vehicle, which is representative of a current braking capacity and can be used by a train control device, in which a safety interval is regularly determined in which the current braking capacity of the rail vehicle lies with a predetermined level of safety, and in which the safe braking value is stipulated on the basis of the safety interval, characterised in that a time (t) elapsed since the last braking of the rail vehicle is taken into account when estimating the safety interval.