mhurhangee/ep-ind-claims huggingface dataset:
A measuring method for measuring the concentration of 1,5-anhydroglucitol in whole blood, said method comprising the steps of: hemolyzing the whole blood and eliminating a component disturbing the measurement of 1,5-anhydroglucitol with an enzyme selected from the group consisting of ascorbic acid oxidase, hexokinase, glucokinase, glucose oxidase, glucose dehydrogenase, phosphohexose isomerase, 6-phosphofructokinase, glucose isomerase, and fructokinase; and then reacting pyranose oxidase with 1,5-anhydroglucitol included in the resulting hemolyzed whole blood and detecting color development of a coloring matter generated from the resulting hydrogen peroxide and a chromogen using absorbance. hemolyzing the whole blood and eliminating a component disturbing the measurement of 1,5-anhydroglucitol with an enzyme selected from the group consisting of ascorbic acid oxidase, hexokinase, glucokinase, glucose oxidase, glucose dehydrogenase, phosphohexose isomerase, 6-phosphofructokinase, glucose isomerase, and fructokinase; and then reacting pyranose oxidase with 1,5-anhydroglucitol included in the resulting hemolyzed whole blood and detecting color development of a coloring matter generated from the resulting hydrogen peroxide and a chromogen using absorbance.
A method comprising: creating Coriolis-based deflection in first and second oscillating flow tubes (102-104, 202-204, 602-604) of a flow meter (100, 200, 600), the Coriolis-based deflection caused by material flowing through the flow tubes; determining an amplitude and a period of the deflection using interferometric measurements of the flow tubes obtained by a laser interferometer; determining a characteristic of the material using the amplitude and the period of the deflection; and transmitting the characteristic from the flow meter; wherein the laser interferometer comprises: a first partial mirror configured to direct a first part of radiation along a first path associated with the first flow tube and to direct a second part of the radiation along a second path associated with the second flow tube; mirrors configured to direct the radiation traveling along the first and second paths to a second partial mirror, the second partial mirror configured to combine part of the radiation from the first path and part of the radiation from the second path; and a radiation detector configured to receive the combined radiation from the second partial mirror. creating Coriolis-based deflection in first and second oscillating flow tubes (102-104, 202-204, 602-604) of a flow meter (100, 200, 600), the Coriolis-based deflection caused by material flowing through the flow tubes; determining an amplitude and a period of the deflection using interferometric measurements of the flow tubes obtained by a laser interferometer; determining a characteristic of the material using the amplitude and the period of the deflection; and transmitting the characteristic from the flow meter; wherein the laser interferometer comprises: a first partial mirror configured to direct a first part of radiation along a first path associated with the first flow tube and to direct a second part of the radiation along a second path associated with the second flow tube; mirrors configured to direct the radiation traveling along the first and second paths to a second partial mirror, the second partial mirror configured to combine part of the radiation from the first path and part of the radiation from the second path; and a radiation detector configured to receive the combined radiation from the second partial mirror. a first partial mirror configured to direct a first part of radiation along a first path associated with the first flow tube and to direct a second part of the radiation along a second path associated with the second flow tube; mirrors configured to direct the radiation traveling along the first and second paths to a second partial mirror, the second partial mirror configured to combine part of the radiation from the first path and part of the radiation from the second path; and a radiation detector configured to receive the combined radiation from the second partial mirror.
A disposable diaper having a longitudinal direction and a transverse direction comprising a side facing the wearer's skin, a side facing away from the wearer's skin, a front waist region, a rear waist region, a crotch region extending between said front and rear waist regions, a waist-opening and a pair of leg-openings, said disposable diaper being characterized in that: said front waist region is divided into a first elastic zone extending in said transverse direction along a peripheral edge of said waist-opening, a second elastic zone lying next to said first elastic zone and extending in said transverse direction and a third elastic zone lying next to said second elastic zone extending in said transverse direction between said second elastic zone and said crotch region; said rear waist region is divided into a fourth elastic zone extending in said transverse direction along the peripheral edges of said waist-opening, a fifth elastic zone lying next to said fourth elastic zone and extending in said transverse direction and a sixth elastic zone lying next to said fifth elastic zone and extending in said transverse direction between said fifth elastic zone and said crotch region; and correlation among values of tensile stress in said elastic zones can be represented by the sixth elastic zone > the second elastic zone > the third elastic zone ≥ the fifth elastic zone > the first elastic zone and the sixth elastic zone > the second elastic zone > the third elastic zone ≥ the fifth elastic zone > the fourth elastic zone. said front waist region is divided into a first elastic zone extending in said transverse direction along a peripheral edge of said waist-opening, a second elastic zone lying next to said first elastic zone and extending in said transverse direction and a third elastic zone lying next to said second elastic zone extending in said transverse direction between said second elastic zone and said crotch region; said rear waist region is divided into a fourth elastic zone extending in said transverse direction along the peripheral edges of said waist-opening, a fifth elastic zone lying next to said fourth elastic zone and extending in said transverse direction and a sixth elastic zone lying next to said fifth elastic zone and extending in said transverse direction between said fifth elastic zone and said crotch region; and correlation among values of tensile stress in said elastic zones can be represented by the sixth elastic zone > the second elastic zone > the third elastic zone ≥ the fifth elastic zone > the first elastic zone and the sixth elastic zone > the second elastic zone > the third elastic zone ≥ the fifth elastic zone > the fourth elastic zone.
A dishwashing cleaning composition comprising a cationic copolymer, wherein the copolymer comprises: i. from 60 to 99% by weight of at least one monoethylenically unsaturated polyalkylene oxide monomer of the formula I (monomer) in which the variables have the following meanings: X is -CH 2 - or -CO-, if Y is -O-; is -CO-, if Y is -NH-; Y is -O- or -NH-; R 1 is hydrogen or methyl; R 2 are identical or different C2-C6-alkylene radicals; R 3 is H or C1-C4 alkyl; n is an integer from 20 to 100, ii. from 1 to 40% by weight of at least one quaternized nitrogen-containing monomer, selected from the group consisting of at least one of the monomers of the formula IIa, IIb and IId (monomer) in which the variables have the following meanings: R is C1-C4 alkyl or benzyl; X - is halide, C1-C4-alkyl sulfate, C1-C4-alkylsulfonate and C1-C4-alkyl carbonate. iii. from 0 to 15% by weight of at least one anionic monoethylenically unsaturated monomer (monomer), and iv. from 0 to 30% by weight of at least one other nonionic monoethylenically unsaturated monomer (monomer), and the copolymer has a weight average molecular weight (Mw) from 105,000 g/mol to 500,000 g/mol. i. from 60 to 99% by weight of at least one monoethylenically unsaturated polyalkylene oxide monomer of the formula I (monomer) in which the variables have the following meanings: X is -CH 2 - or -CO-, if Y is -O-; is -CO-, if Y is -NH-; Y is -O- or -NH-; R 1 is hydrogen or methyl; R 2 are identical or different C2-C6-alkylene radicals; R 3 is H or C1-C4 alkyl; n is an integer from 20 to 100, X is -CH 2 - or -CO-, if Y is -O-; is -CO-, if Y is -NH-; Y is -O- or -NH-; R 1 is hydrogen or methyl; R 2 are identical or different C2-C6-alkylene radicals; R 3 is H or C1-C4 alkyl; n is an integer from 20 to 100, ii. from 1 to 40% by weight of at least one quaternized nitrogen-containing monomer, selected from the group consisting of at least one of the monomers of the formula IIa, IIb and IId (monomer) in which the variables have the following meanings: R is C1-C4 alkyl or benzyl; X - is halide, C1-C4-alkyl sulfate, C1-C4-alkylsulfonate and C1-C4-alkyl carbonate. R is C1-C4 alkyl or benzyl; X - is halide, C1-C4-alkyl sulfate, C1-C4-alkylsulfonate and C1-C4-alkyl carbonate. iii. from 0 to 15% by weight of at least one anionic monoethylenically unsaturated monomer (monomer), and iv. from 0 to 30% by weight of at least one other nonionic monoethylenically unsaturated monomer (monomer),
A method of establishing a first quantum key for use by first (QNode 1) and second (QNode 3) network nodes, the method comprising a key agreement step and an authentication step, wherein the key agreement step is performed by the second network node (QNode 3) and a third network node (QNode 2), and the method being characterised in that the authentication step is subsequently performed by the first (QNode 1) and second (QNode 3) network nodes, wherein in the key agreement step the second (QNode 3) and third (QNode 2) network nodes exchange messages (M 23, M 32) over a classical channel, and in the authentication step: (i) said messages (M 23, M 32) are passed from the third network node (QNode 2) to the first network node (QNode 1); (ii) the first (QNode 1) and second (QNode 3) network nodes each locally generate a cryptographic hash ([M 23] A3, [M 32] A3) of said messages using an authentication key shared by the first (QNode 1) and second (QNode 3) network nodes; (iii) the first (QNode 1) and second (QNode 3) network nodes exchange the cryptographic hashes ([M 23] A3, [M 32] A3) generated in (ii) so that each receives a cryptographic hash from the other; (iv) received and locally-generated cryptographic hashes are compared at each of the first (QNode 1) and second (QNode 3) network nodes. (i) said messages (M 23, M 32) are passed from the third network node (QNode 2) to the first network node (QNode 1); (ii) the first (QNode 1) and second (QNode 3) network nodes each locally generate a cryptographic hash ([M 23] A3, [M 32] A3) of said messages using an authentication key shared by the first (QNode 1) and second (QNode 3) network nodes; (iii) the first (QNode 1) and second (QNode 3) network nodes exchange the cryptographic hashes ([M 23] A3, [M 32] A3) generated in (ii) so that each receives a cryptographic hash from the other; (iv) received and locally-generated cryptographic hashes are compared at each of the first (QNode 1) and second (QNode 3) network nodes.
A road roller having a front carriage and a rear carriage, which are interconnected by an articulated swivel joint, the front carriage and the rear carriage having a front carriage frame and a rear carriage frame, characterized in that said front carriage frame and/or said rear carriage frame consist of beams, comprising in each case a main beam, which extends horizontally in the longitudinal median plane of said road roller and at one end of which said articulated swivel joint is disposed, and comprising two side beams (23, 24) diverging from the free end of said main beam in a "V" shape and in a mirror-inverted relationship about said longitudinal median plane and oriented upwardly, that further said side beams (23, 24) freely overhang the free end of said main beam, and that freely overhanging load-bearing supports (10, 11), which extend parallel to said main beam and on which a drum (5, 6) is mounted, are disposed at the free ends of said side beams (23, 24).
A vehicle, comprising: a wing; a housing disposed within the wing; a battery comprising a plurality of layers and disposed within the housing; and a first removable battery compression device disposed within the housing and configured to apply compressive force to the plurality of layers of the battery via a first side of the battery, wherein the battery provides power to the vehicle after removing the removable battery compression device from the vehicle. a wing; a housing disposed within the wing; a battery comprising a plurality of layers and disposed within the housing; and a first removable battery compression device disposed within the housing and configured to apply compressive force to the plurality of layers of the battery via a first side of the battery, wherein the battery provides power to the vehicle after removing the removable battery compression device from the vehicle.
A printing apparatus comprising: a printing portion configured to perform printing by discharging inks onto a recording medium; a transporting belt that includes a mounting portion on which a test medium, on which a test printing can be performed by discharging the inks before performing the printing, can be mounted; a guide portion for guiding the test medium to the mounting portion at the time of mounting the test medium on the mounting portion; a cover that covers the transporting belt and the printing portion, wherein the guide portion is an opening portion which is provided on the cover and wherein the opening portion is provided on an upstream side of the printing portion in a transporting direction (y) of the recording medium; and a supporting portion that supports the transporting belt from the inside, wherein a part of the transporting belt, the part being supported by the supporting portion, functions as the mounting portion, and wherein the supporting portion has a plate shape having a higher stiffness than the transporting belt, and is provided inside the transporting belt and on an upstream side of the printing portion in the transporting direction (y) whereby the test medium can be mounted to the mounting portion above the supporting portion. a printing portion configured to perform printing by discharging inks onto a recording medium; a transporting belt that includes a mounting portion on which a test medium, on which a test printing can be performed by discharging the inks before performing the printing, can be mounted; a guide portion for guiding the test medium to the mounting portion at the time of mounting the test medium on the mounting portion; a cover that covers the transporting belt and the printing portion, wherein the guide portion is an opening portion which is provided on the cover and wherein the opening portion is provided on an upstream side of the printing portion in a transporting direction (y) of the recording medium; and a supporting portion that supports the transporting belt from the inside, wherein a part of the transporting belt, the part being supported by the supporting portion, functions as the mounting portion, and wherein the supporting portion has a plate shape having a higher stiffness than the transporting belt, and is provided inside the transporting belt and on an upstream side of the printing portion in the transporting direction (y) whereby the test medium can be mounted to the mounting portion above the supporting portion.
A mobile communication system, comprising: a local access server configured to directly connect to access points of multiple Radio Access Technologies, Multi-RATs, coordinate the Multi-RATs, enable local access from a terminal and control direct communication among terminals, achieve distributed network control, and perform location management and handover management within a service area of the local access server; and a network controller configured to communicate with the local access server and comprising a communication control entity for communication control and a policy control entity for policy control, and configured to establish and configure a forwarding path for forwarding data traffic, wherein the network controller comprises a first control module and a path establishment module, the first control module is configured to comprise the communication control entity and the policy control entity, and is further configured to receive a connection/session establishment request from the local access server, calculate a Quality of Service, QoS, parameter in accordance with user subscription data and/or service characteristics, request the path establishment module to establish the forwarding path in accordance with the QoS parameter, and request the local access server to establish a radio connection using the QoS parameter; and the path establishment module is configured to establish and configure the forwarding path under a control from the first control module. a local access server configured to directly connect to access points of multiple Radio Access Technologies, Multi-RATs, coordinate the Multi-RATs, enable local access from a terminal and control direct communication among terminals, achieve distributed network control, and perform location management and handover management within a service area of the local access server; and a network controller configured to communicate with the local access server and comprising a communication control entity for communication control and a policy control entity for policy control, and configured to establish and configure a forwarding path for forwarding data traffic, wherein the network controller comprises a first control module and a path establishment module, the first control module is configured to comprise the communication control entity and the policy control entity, and is further configured to receive a connection/session establishment request from the local access server, calculate a Quality of Service, QoS, parameter in accordance with user subscription data and/or service characteristics, request the path establishment module to establish the forwarding path in accordance with the QoS parameter, and request the local access server to establish a radio connection using the QoS parameter; and the path establishment module is configured to establish and configure the forwarding path under a control from the first control module.
A method for reconstructing a personal area network, PAN, after a failure in the PAN, the method comprising: detecting, by a node (104a-k), a power failure in the node (104a-k); storing, by the node (104a-k), data about a parent node (104a-c, 104e-g) in a system at a time of the power failure; detecting, by the node (104a-k), power restoration in the node (104a-k) and entering into a restoration state in response to detecting the power restoration; transmitting, by the node (104a-k) and in response to entering into the restoration state, an enhanced beacon request via a frequency channel associated with the parent node (104a-c, 104e-g) by using the stored data; receiving, by the node (104a-k), an acknowledgement response from the parent node (104a-c, 104e-g) via the frequency channel associated with the parent node (104a-c, 104eg), wherein the node (104a-k) is configured for continuing to listen for communication from the parent node (104a-c, 104e-g) via the frequency channel once the acknowledgment response has been received; and receiving, by the node (104a-k), an enhanced beacon request response from the parent node (104a-c, 104e-g) via the frequency channel associated with the parent node (104a-c, 104e-g) to synchronize communication between the node (104a-k) and the system. detecting, by a node (104a-k), a power failure in the node (104a-k); storing, by the node (104a-k), data about a parent node (104a-c, 104e-g) in a system at a time of the power failure; detecting, by the node (104a-k), power restoration in the node (104a-k) and entering into a restoration state in response to detecting the power restoration; transmitting, by the node (104a-k) and in response to entering into the restoration state, an enhanced beacon request via a frequency channel associated with the parent node (104a-c, 104e-g) by using the stored data; receiving, by the node (104a-k), an acknowledgement response from the parent node (104a-c, 104e-g) via the frequency channel associated with the parent node (104a-c, 104eg), wherein the node (104a-k) is configured for continuing to listen for communication from the parent node (104a-c, 104e-g) via the frequency channel once the acknowledgment response has been received; and receiving, by the node (104a-k), an enhanced beacon request response from the parent node (104a-c, 104e-g) via the frequency channel associated with the parent node (104a-c, 104e-g) to synchronize communication between the node (104a-k) and the system.
Ceiling storage unit for storing objects on/below a ceiling or ceiling beam, wherein at least one storage element for storing and/or receiving/safekeeping the objects and a lifting unit for raising and lowering the storage element in a vertical direction are provided, wherein at least a first, upper storage position and a second, lower storage position of the storage element are provided, wherein the lifting unit comprises at least one lifting device (6, 7) with at least one adjustable lifting element, in particular rope, strap and/or belt, and with at least one drive for driving the lifting device and for vertically adjusting the storage element, wherein the drive comprises at least one (electric) drive motor for (electrically) motorized driving/adjusting of the storage element and/or a handle/crank for manually driving/adjusting the storage element, wherein the lifting unit comprises at least one fixing device for fixing a ceiling element of the lifting device to the ceiling and/or the ceiling beam, wherein the storage element is designed as a storage tray with a receiving opening which is oriented upwards in the vertical direction and a substantially closed wall (11, 12, 13, 14) which is arranged around the receiving opening, wherein in particular the wall (11, 13, 14) has at least one tray bottom and a side wall (13, 14) bordering the receiving opening and/or two longitudinal sides and two transverse sides, wherein, in the first, upper, in particular uppermost storage position of the storage element, the storage element and/or the storage tray and/or the side wall (13, 14), as viewed in the vertical direction, are/is arranged next to/alongside the ceiling element, and characterized in that, in the first, upper, in particular uppermost storage position of the storage element, the ceiling element is bordered by the storage element and/or the storage tray and/or the side wall (11, 13, 14).