mhurhangee/ep-ind-claims huggingface dataset:
A sensor device for detecting a gas, comprising: - an adsorption filter comprising a body consisting of a molecular sieve material, - a sensing element for detecting said gas, - a carrier for carrying the sensing element, wherein the carrier comprises an opening via which said gas to be detected can reach the sensing element, and wherein - the adsorption filter is connected to the carrier and closes said opening so that said gas to be detected can diffuse through said body towards the sensing element. characterized in that said body comprises a diameter in the range from 0.2 mm to 5 mm, wherein the adsorption filter is an adsorption filter plate, wherein the body is embedded in a form fitting manner in a cured material of the adsorption filter, and wherein said adsorption filter plate comprises a front side and an opposing back side, wherein the body extends inside the adsorption filter plate from the front side to the back side of the adsorption filter plate and thus forms a passage for the gas to be detected through the adsorption filter plate, wherein a front side of the body forms an area of said front side of the adsorption filter plate, and wherein a back side of the body forms an area of said back side of the adsorption filter plate, and wherein the body is flush with the material at the front side and the back side of the adsorption filter plate, and wherein the carrier comprises a planar front side in which a recess is formed, wherein the sensing element is arranged in said recess and wherein the recess comprises said opening that extends in the plane of the planar front side of the carrier, wherein the back side of the adsorption filter plate is glued to the front side of the carrier such that a gas-tight seal is established between said material and the carrier, so that the gas to be detected can only diffuse via said body through the adsorption filter plate to reach the sensing element, and wherein said body covers said opening of the recess of the carrier. - an adsorption filter comprising a body consisting of a molecular sieve material, - a sensing element for detecting said gas, - a carrier for carrying the sensing element, wherein the carrier comprises an opening via which said gas to be detected can reach the sensing element, and wherein - the adsorption filter is connected to the carrier and closes said opening so that said gas to be detected can diffuse through said body towards the sensing element.
A method, performed by wireless network device, of preventing a client from being assigned a new Internet Protocol, IP, address, the method comprising: receiving a detection message by the network device from the client, wherein the detection message is an Address Resolution Protocol, ARP, message; transmitting a response by the network device to the client, wherein the response is an ARP reply and indicates that the client is on a home network of the client regardless of whether the client is on the home network; receiving a second detection message by the network device from the client, wherein the second detection message is an Internet Control Message Protocol, ICMP, PING request; determining by the network device whether proxy Mobile IP is enabled; transmitting a second response by the network device to the client, wherein the second response indicates that the client is on the home network of the client regardless of whether the client is on the home network, wherein the second response is an ICMP PING reply; and wherein transmitting the second response by the network device to the client is performed when it is determined that proxy Mobile IP is enabled. receiving a detection message by the network device from the client, wherein the detection message is an Address Resolution Protocol, ARP, message; transmitting a response by the network device to the client, wherein the response is an ARP reply and indicates that the client is on a home network of the client regardless of whether the client is on the home network; receiving a second detection message by the network device from the client, wherein the second detection message is an Internet Control Message Protocol, ICMP, PING request; determining by the network device whether proxy Mobile IP is enabled; transmitting a second response by the network device to the client, wherein the second response indicates that the client is on the home network of the client regardless of whether the client is on the home network, wherein the second response is an ICMP PING reply; and wherein transmitting the second response by the network device to the client is performed when it is determined that proxy Mobile IP is enabled.
A method, performed in a forklift truck, for determining a load position in a load rack, the forklift truck comprising optical detection means (3, 30) movable with a load carrier, the method comprising the step of: - determining a reference position related to the optical detection means (3, 30) of a first land mark located on a first height of the load rack based on the position of the first landmark in a first image captured by the optical detection means (3, 30) and characterized by further comprising the steps of: - determining a second position related to the optical detection means (3, 30) of a second land mark located on a second height of the load rack based on the position of the second landmark in a second image captured by the optical detection means (3, 30) at a predetermined height; and - determining the load position on the second height based on a comparison between the reference position and the second position. - determining a reference position related to the optical detection means (3, 30) of a first land mark located on a first height of the load rack based on the position of the first landmark in a first image captured by the optical detection means (3, 30) and characterized by further comprising the steps of: - determining a second position related to the optical detection means (3, 30) of a second land mark located on a second height of the load rack based on the position of the second landmark in a second image captured by the optical detection means (3, 30) at a predetermined height; and - determining the load position on the second height based on a comparison between the reference position and the second position. - determining a second position related to the optical detection means (3, 30) of a second land mark located on a second height of the load rack based on the position of the second landmark in a second image captured by the optical detection means (3, 30) at a predetermined height; and - determining the load position on the second height based on a comparison between the reference position and the second position.
An aircraft cabin having a floor and a longitudinal axis, in which cabin there are installed a plurality of seat units including first and second seat units in a first row of seat units and a third seat unit in a second row of seat units, wherein each seat unit includes a seat and a console adjacent to the seat, the seat being configurable between a bed mode and a seat mode, the cabin includes an aisle extending parallel to the longitudinal axis, the first and second seat units are separated by the aisle, there being a first aisle-width-value equal to the shortest distance between the first and second seat units at any height less than a first distance from the floor, there being a second aisle-width-value equal to the shortest distance between the first and second seat units at any height greater than the first distance from the floor, the first aisle-width-value is not less than a first minimum width, but is less than a second minimum width, the second minimum width being greater than the first minimum width, and the second aisle-width-value is not less than the second minimum width, the seats of each of the first, second and third seat units all face in the same direction, said direction being inclined to the longitudinal axis by a seat offset angle, the console of the first seat unit is directly adjacent to the aisle and accommodates a foot-well for use by a passenger in the seat of the third seat unit, and at least a part of the console of the first seat unit, in a region no higher than the first distance from the floor, extends further into the aisle than the rest of the first seat unit in a region higher than the first distance from the floor, characterised in that each seat unit includes an arm-rest surface for use by a passenger in the seat of the seat unit, the arm-rest surface overhanging a region aft of the foot-well defined by the console of the seat unit.
Substrate handling system comprising a sheet processing machine and at least one alignment device, the at least one alignment device comprising at least four stops (32; 33; 34), at least one stop being configured as a front stop and at least one stop being configured as a rear stop, and at least two stops being configured in each case as a lateral stop, the at least two lateral stops being arranged opposite one another, the at least one front stop and the at least one rear stop being arranged opposite one another, the alignment device comprising at least one support element, the at least one support element being configured as a propping element for propping at least one partial stack of sheets in the alignment device, at least one respective support element being arranged at the at least two lateral stops and at the at least one rear stop, characterized in that at least one pallet and/or at least one fork system and/or at least one plate and/or at least one object that at least temporarily creates a base is arranged beneath the at least one alignment device and/or beneath the at least one support element, without further elements or devices therebetween.
A method for encoding video data, the method comprising: determining whether a prediction unit, PU, in a B slice is restricted to uni-directional inter prediction; generating a merge candidate list for the PU, wherein each merge candidate specifies a set of motion information for another PU that spatially neighbors the PU or is collocated with the PU in a different picture to the PU, wherein at least one of the merge candidates is a bi-directional merge candidate; pruning duplicate merge candidates from the merge candidate list to generate a pruned merge candidate list; when the PU is restricted to uni-directional inter prediction, converting a bi-directional merge candidate in the pruned merge candidate list into a uni-directional merge candidate after generating the pruned merge candidate list; determining a selected candidate in the pruned merge candidate list; and generating a bitstream that includes an encoded syntax element that indicates a position in the pruned merge candidate list of the selected candidate to adopt motion information specified by the selected candidate in the pruned merge candidate list as motion information of the PU. determining whether a prediction unit, PU, in a B slice is restricted to uni-directional inter prediction; generating a merge candidate list for the PU, wherein each merge candidate specifies a set of motion information for another PU that spatially neighbors the PU or is collocated with the PU in a different picture to the PU, wherein at least one of the merge candidates is a bi-directional merge candidate; pruning duplicate merge candidates from the merge candidate list to generate a pruned merge candidate list; when the PU is restricted to uni-directional inter prediction, converting a bi-directional merge candidate in the pruned merge candidate list into a uni-directional merge candidate after generating the pruned merge candidate list; determining a selected candidate in the pruned merge candidate list; and generating a bitstream that includes an encoded syntax element that indicates a position in the pruned merge candidate list of the selected candidate to adopt motion information specified by the selected candidate in the pruned merge candidate list as motion information of the PU.
A hold-open arrangement for a door, comprising a sliding rail for accommodating a sliding element, wherein the sliding element is connectable to the door, a housing for the sliding rail, wherein the housing includes at least one additional element protruding into the inside of the hold-open arrangement, wherein a hold-open device of the hold-open arrangement is provided, in order to hold at least one door leaf in an opened position and to arrest the sliding element, wherein the hold-open arrangement comprises a control unit, wherein the control unit releases the hold-open device in the event of a fire, so that the door leaf closes, wherein, in addition to the sliding rail, the housing accommodates the hold-open device, characterized in that the hold-open arrangement includes a mounting plate for the arrangement at the door and the sliding rail is disposed between the mounting plate and the additional element, wherein the housing includes an upper and a lower coverings (81, 82) and the additional element connects the upper and the lower coverings (81, 82) to each other; and the additional element is a component of a basic body, which is formed as an H-carrier, wherein the upper and the lower coverings (81, 82) and the additional element together form the H-carrier, wherein the upper covering and the lower covering and the additional element are formed integrally with each other and from the same material, wherein the housing is dismountable without dismounting the mounting plate.
A protective textile sleeve, comprising: a flexible, tubular wall (12, 12') of woven warp yarns, extending lengthwise along a longitudinal axis between opposite ends (22, 24) of said tubular wall (12, 12'), and weft yarns, extending generally transversely to said warp yarns, at least some of said weft yarns being activatable weft yarn to shrink in length and at least some said weft yarns, adjacent said activatable weft yarn, being substantially non-activatable weft yarn, wherein said activatable weft yarns, upon being activated and shrunken, forming valleys having a second diameter less than a first diameter of crests formed by said substantially non-activatable weft yarn, wherein said crests being spaced axially from one another, and wherein at least some of said valleys extending between said crests, thereby forming a corrugated protective textile sleeve (10, 10').
A process for preparing a procatalyst composition comprising the steps of: (a) reacting a hydrocarbon-soluble organomagnesium compound or complex thereof in a hydrocarbon solvent with an active non-metallic or metallic halide to form a magnesium halide support; (b) contacting the magnesium halide support and a compound containing titanium to form a supported titanium procatalyst; and (c) contacting the supported titanium procatalyst with an electron donor modifier having the formula: wherein: A is -CR 1 R 2 CR 3 R 4 CR 5 R 6 - or -SiR 7 R 8 -; each of X 1 and X 2 is hydrogen, R, or C(=O)R; R is a C 1 -C 20 hydrocarbyl that is optionally substituted with one or more halogens or at least one functional group comprising at least one heteroatom; and each of R 1 to R 8 is hydrogen or a C 1 -C 20 hydrocarbyl that is optionally comprised of at least one heteroatom, wherein a total number of non-hydrogen atoms in R 1 to R 6 or R 7 to R 8 is greater than 2, wherein R 1 to R 6 or R 7 to R 8 optionally forms a cyclic structure, and wherein X 1 and X 2 are not both hydrogen. (a) reacting a hydrocarbon-soluble organomagnesium compound or complex thereof in a hydrocarbon solvent with an active non-metallic or metallic halide to form a magnesium halide support; (b) contacting the magnesium halide support and a compound containing titanium to form a supported titanium procatalyst; and (c) contacting the supported titanium procatalyst with an electron donor modifier having the formula: wherein: A is -CR 1 R 2 CR 3 R 4 CR 5 R 6 - or -SiR 7 R 8 -; each of X 1 and X 2 is hydrogen, R, or C(=O)R; R is a C 1 -C 20 hydrocarbyl that is optionally substituted with one or more halogens or at least one functional group comprising at least one heteroatom; and each of R 1 to R 8 is hydrogen or a C 1 -C 20 hydrocarbyl that is optionally comprised of at least one heteroatom, wherein a total number of non-hydrogen atoms in R 1 to R 6 or R 7 to R 8 is greater than 2, wherein R 1 to R 6 or R 7 to R 8 optionally forms a cyclic structure, and wherein X 1 and X 2 are not both hydrogen. A is -CR 1 R 2 CR 3 R 4 CR 5 R 6 - or -SiR 7 R 8 -; each of X 1 and X 2 is hydrogen, R, or C(=O)R; R is a C 1 -C 20 hydrocarbyl that is optionally substituted with one or more halogens or at least one functional group comprising at least one heteroatom; and each of R 1 to R 8 is hydrogen or a C 1 -C 20 hydrocarbyl that is optionally comprised of at least one heteroatom, wherein a total number of non-hydrogen atoms in R 1 to R 6 or R 7 to R 8 is greater than 2, wherein R 1 to R 6 or R 7 to R 8 optionally forms a cyclic structure, and wherein X 1 and X 2 are not both hydrogen.
A method for purifying impure carbon dioxide comprising a first contaminant selected from the group consisting of oxygen and carbon monoxide, said method comprising: compressing impure carbon dioxide gas to produce compressed impure carbon dioxide gas; condensing at least a portion of said compressed impure carbon dioxide gas to produce impure carbon dioxide liquid; expanding at least a portion of said impure carbon dioxide liquid to produce expanded impure carbon dioxide liquid; and separating at least a portion of said expanded impure carbon dioxide liquid in a mass transfer separation column system to produce first contaminant-enriched overhead vapor and carbon dioxide bottoms liquid, wherein said carbon dioxide bottoms liquid is reboiled by indirect heat exchange against crude carbon dioxide gas to produce carbon dioxide vapour for the column and cooled crude carbon dioxide gas, wherein said impure carbon dioxide gas is derived from said crude carbon dioxide gas, and wherein said impure liquid carbon dioxide comprises at least 90 mol. % carbon dioxide and said crude carbon dioxide comprises from 60 mol. % to 90 mol. % carbon dioxide. compressing impure carbon dioxide gas to produce compressed impure carbon dioxide gas; condensing at least a portion of said compressed impure carbon dioxide gas to produce impure carbon dioxide liquid; expanding at least a portion of said impure carbon dioxide liquid to produce expanded impure carbon dioxide liquid; and separating at least a portion of said expanded impure carbon dioxide liquid in a mass transfer separation column system to produce first contaminant-enriched overhead vapor and carbon dioxide bottoms liquid,
A method for password management, the method comprising: sending, by a user device (120, 220, 320), a request message to a password management server (140, 240, 340), the request message including a public key (124, 224, 324) of the user device, the public key and a private key (122, 222, 322) forming a public-private key pair (122, 222, 322); receiving, by the user device, one or more account names associated with the public key from the password management server, the one or more account names including a first account name; sending, by the user device, a password retrieval request to the password management server, the password retrieval request including the first account name; receiving, by the user device, a response message from the password management server, the response message including an encrypted password; decrypting, by the user device, the encrypted password using the private key to obtain a decrypted password; and obtaining, by the user device, access to account information using the decrypted password. sending, by a user device (120, 220, 320), a request message to a password management server (140, 240, 340), the request message including a public key (124, 224, 324) of the user device, the public key and a private key (122, 222, 322) forming a public-private key pair (122, 222, 322); receiving, by the user device, one or more account names associated with the public key from the password management server, the one or more account names including a first account name; sending, by the user device, a password retrieval request to the password management server, the password retrieval request including the first account name; receiving, by the user device, a response message from the password management server, the response message including an encrypted password; decrypting, by the user device, the encrypted password using the private key to obtain a decrypted password; and obtaining, by the user device, access to account information using the decrypted password.
A particle separation system, comprising: a supply comprising a gaseous stream or volume of electrically charged particles; at least one swirling chamber; an entry path to the swirling chamber in communication with the supply and an exit path from the swirling chamber; an electrical field inducer comprising a plurality of electrodes circumferentially arranged around the at least one swirling chamber and in electrical communication with at least one power source and configured to create at least one rotating electrical field within the at least one swirling chamber; characterized in that the inducer is configured to adjustably control at least one of the strength or the frequency of the at least one electrical field to separate particles above a predetermined size from the gaseous stream or volume of electrically charged particles. a supply comprising a gaseous stream or volume of electrically charged particles; at least one swirling chamber; an entry path to the swirling chamber in communication with the supply and an exit path from the swirling chamber; an electrical field inducer comprising a plurality of electrodes circumferentially arranged around the at least one swirling chamber and in electrical communication with at least one power source and configured to create at least one rotating electrical field within the at least one swirling chamber; characterized in that the inducer is configured to adjustably control at least one of the strength or the frequency of the at least one electrical field to separate particles above a predetermined size from the gaseous stream or volume of electrically charged particles.