mhurhangee/ep-ind-claims huggingface dataset:
A method for providing access to a private network resource comprising: receiving, by an electronic rendezvous service, a request from a client application that the client application would like to access the resource; performing, by the electronic rendezvous service, in response to receiving the request, a first set of authentication and authorization processes; receiving, by a firewall that communicatively couples the client application to the resource, an indication from the electronic rendezvous service that the client application has passed the first set of authentication and authorization processes; receiving, by the firewall, a request from the client application to access the private network resource; creating, by the firewall, in response to receiving the indication, an entry point through the firewall that enables the request to pass through to the resource; performing, by the resource, a second set of authentication and authorization processes; and if the client application passes the second set of authentication and authorization processes, enabling the client application to access the private network resource, characterized in that the firewall is configured so that the information needed for the client application to connect to the electronic rendezvous service is not discoverable from the firewall, and the electronic rendezvous service is configured so that the information needed for the client application to connect to the firewall is not discoverable from the electronic rendezvous service. receiving, by an electronic rendezvous service, a request from a client application that the client application would like to access the resource; performing, by the electronic rendezvous service, in response to receiving the request, a first set of authentication and authorization processes; receiving, by a firewall that communicatively couples the client application to the resource, an indication from the electronic rendezvous service that the client application has passed the first set of authentication and authorization processes; receiving, by the firewall, a request from the client application to access the private network resource; creating, by the firewall, in response to receiving the indication, an entry point through the firewall that enables the request to pass through to the resource; performing, by the resource, a second set of authentication and authorization processes; and if the client application passes the second set of authentication and authorization processes, enabling the client application to access the private network resource,
UV protection agent, where the UV protection essentially emanates from a particulate titanium dioxide, characterised in that the titanium dioxide has a manganese-containing coating and in that the crystallite size of the particulate titanium dioxide in the particulate UV protection agent, determined by the Scherrer method, is in the range from 8 nm to 50 nm, and the dimensions of the particulate titanium dioxide, which can be determined in a transmission electron microscope, are a length of 20 to 60 nm and a width of 8 to 30 nm.
A wiper blade assembling adapter for coupling a wiper blade to a wiper arm which has an arm part configured to rotate about a proximal end and a cover part coupled to a distal end of the arm part, wherein a coupling element protrudes inward from a lower side of a rear end at a side surface of the cover part, the wiper blade assembling adapter comprising: a main body part adapted to be coupled to the wiper blade; and a locking part rotatably provided on the main body part, wherein the main body part includes a guide part, which has an insertion part into which the coupling element of the wiper arm can be inserted in a first direction and a catching part which extends from the insertion part and is configured to block movement of the coupling element in the first direction after the coupling element moves in a second direction, and a hinge part disposed at one side of the guide part, and the locking part has a rotary surface which is rotatably coupled to the hinge part and a cover surface which extends from the rotary surface and covers an outer surface of the wiper arm that surrounds the main body part; characterized in that a step part, on which a lower end of the cover part is to be seated, protrudes from a side surface of the main body part; wherein the main body part further includes a sidewall part that protrudes from a surrounding portion of the step part and surrounds a side surface of the cover part. a main body part adapted to be coupled to the wiper blade; and a locking part rotatably provided on the main body part, wherein the main body part includes a guide part, which has an insertion part into which the coupling element of the wiper arm can be inserted in a first direction and a catching part which extends from the insertion part and is configured to block movement of the coupling element in the first direction after the coupling element moves in a second direction, and a hinge part disposed at one side of the guide part, and the locking part has a rotary surface which is rotatably coupled to the hinge part and a cover surface which extends from the rotary surface and covers an outer surface of the wiper arm that surrounds the main body part; characterized in that a step part, on which a lower end of the cover part is to be seated, protrudes from a side surface of the main body part; wherein the main body part further includes a sidewall part that protrudes from a surrounding portion of the step part and surrounds a side surface of the cover part.
A computer-implemented method to facilitate licensing in an industrial automation environment, the method comprising: transmitting a certificate from a client (214; 310;410;510) to a device (212; 320; 420; 520), wherein the certificate is issued to the client as a license from a third party, and wherein the certificate comprises a public key assigned to the client; obtaining, by the client from the third party, a private key associated with the certificate; the method being characterised in that it comprises generating, by the client, a response message to a challenge message issued by the device, the generating comprising decrypting, with the private key, a session key that is encrypted with the public key, the generating further comprising producing a one-way hash of the session key; and establishing a session between the client and the device based in part on the certificate and whether the one-way hash of the session key matches a one-way hash of the session key performed by the device. transmitting a certificate from a client (214; 310;410;510) to a device (212; 320; 420; 520), wherein the certificate is issued to the client as a license from a third party, and wherein the certificate comprises a public key assigned to the client; obtaining, by the client from the third party, a private key associated with the certificate; the method being characterised in that it comprises generating, by the client, a response message to a challenge message issued by the device, the generating comprising decrypting, with the private key, a session key that is encrypted with the public key, the generating further comprising producing a one-way hash of the session key; and establishing a session between the client and the device based in part on the certificate and whether the one-way hash of the session key matches a one-way hash of the session key performed by the device.
Tracked drive assembly for a work machine, in particular for a crawler crane or crawler excavator, comprising a crawler frame, a crawler track, a drive wheel and a guide wheel, and an arrangement of running wheels coupled to the crawler frame, characterized in that the tracked drive assembly has a sensor system comprising, for each of the outer running wheels (5a, 5b) of the running wheel arrangement, which are connected to the drive wheel and the guide wheel, and for at least one other running wheel arranged between the outer running wheels (5a, 5b), a pressure sensor (6a, 6b, 6c) in a component of the tracked drive assembly which is exposed to the compressive load of the at least one other running wheel, said pressure sensor (6a, 6b, 6c) being configured to determine the compressive load the crawler frame is exposed to, wherein said pressure sensor (6a, 6b, 6c) is integrated into the drive assembly box of the crawler frame above the respective running wheel axle and by means of which the force introduced into the crawler track via the respective running wheel (5a, 5b, 5c) can be determined.
An optically variable device comprising a substrate having an array of structures formed thereon, therein or supported thereby, wherein the each of the structures form a pyramidal structure and wherein each pyramidal structure has at least three slanted faces and wherein more than one color seen when viewing the pyramids varies as the substrate is rotated at least 30 degrees about an axis orthogonal to the substrate, characterised in that said structures are coated with an optically variable color-shifting coating.
A liquid ejection head comprising: a channel member comprising a plurality of ejection holes ejecting liquid, a common channel (20, 24) linked with the plurality of ejection holes, a damper chamber configured by a space outside of the common channel (20, 24), and a damper (28A, 28B) configured by a wall partitioning the common channel (20, 24) and the damper chamber; and a plurality of pressurizing parts for pressurizing the liquid, wherein the channel member is configured by a stacked plurality of flat plates (4a, 4b, 4c, 4d, 4e, 4f, 4g, 4h, 4i, 4j, 4k, 4m), the plurality of plates (4a, 4b, 4c, 4d, 4e, 4f, 4g, 4h, 4i,4j, 4k, 4m) comprises a first plate comprising the plurality of ejection holes and a second plate adjacent to the first plate, the second plate comprises a first part sandwiched by the first plate and the damper chamber, the first part comprises a first surface on opposite side from the first plate, and a covering layer is unevenly provided on the first surface of the first part. a channel member comprising a plurality of ejection holes ejecting liquid, a common channel (20, 24) linked with the plurality of ejection holes, a damper chamber configured by a space outside of the common channel (20, 24), and a damper (28A, 28B) configured by a wall partitioning the common channel (20, 24) and the damper chamber; and a plurality of ejection holes ejecting liquid, a common channel (20, 24) linked with the plurality of ejection holes, a damper chamber configured by a space outside of the common channel (20, 24), and a damper (28A, 28B) configured by a wall partitioning the common channel (20, 24) and the damper chamber; and a plurality of pressurizing parts for pressurizing the liquid, wherein the channel member is configured by a stacked plurality of flat plates (4a, 4b, 4c, 4d, 4e, 4f, 4g, 4h, 4i, 4j, 4k, 4m), the plurality of plates (4a, 4b, 4c, 4d, 4e, 4f, 4g, 4h, 4i,4j, 4k, 4m) comprises a first plate comprising the plurality of ejection holes and a second plate adjacent to the first plate, a first plate comprising the plurality of ejection holes and a second plate adjacent to the first plate, the second plate comprises a first part sandwiched by the first plate and the damper chamber, the first part comprises a first surface on opposite side from the first plate, and a covering layer is unevenly provided on the first surface of the first part.
A method of performing a circulating tumor cell detection assay comprising: incubating a patient sample with a plurality of antibodies, wherein the plurality of antibodies comprises an antibody that binds to vimentin, an antibody that binds to another marker expressed on circulating tumor cells, an antibody that binds to a marker expressed on white blood cells, and an antibody that binds to a marker expressed on endothelial cells; detecting the plurality of antibodies, wherein the detecting comprises generating signals from the plurality of antibodies; and confirming the presence of a circulating tumor cell in the sample, comprising identifying one or more cells that have a signal from the antibody that binds to vimentin and a signal from the antibody that binds to the another marker expressed on CTC, but not a signal from the antibody that binds to the marker expressed on white blood cells, a signal from the antibody that binds to the marker expressed on endothelial cells, or both, wherein the marker expressed on endothelial cells is CD144, and wherein the another marker expressed on circulating tumor cells comprises CK8, CK18, CK19, or any combination thereof. incubating a patient sample with a plurality of antibodies, wherein the plurality of antibodies comprises an antibody that binds to vimentin, an antibody that binds to another marker expressed on circulating tumor cells, an antibody that binds to a marker expressed on white blood cells, and an antibody that binds to a marker expressed on endothelial cells; detecting the plurality of antibodies, wherein the detecting comprises generating signals from the plurality of antibodies; and confirming the presence of a circulating tumor cell in the sample, comprising identifying one or more cells that have a signal from the antibody that binds to vimentin and a signal from the antibody that binds to the another marker expressed on CTC, but not a signal from the antibody that binds to the marker expressed on white blood cells, a signal from the antibody that binds to the marker expressed on endothelial cells, or both, wherein the marker expressed on endothelial cells is CD144, and wherein the another marker expressed on circulating tumor cells comprises CK8, CK18, CK19, or any combination thereof.
A mobile station configured to be able to carry out carrier aggregation using a plurality of component carriers in an uplink with a radio base station, comprising: an uplink transmission processing unit configured to transmit uplink information at transmission time intervals, wherein the uplink transmission processing unit is configured to transmit the uplink information at each of the transmission time intervals using only one component carrier, and wherein the uplink transmission processing unit is adapted to, when the uplink information is to be transmitted using a second component carrier at the succeeding transmission time interval in which the uplink information is transmitted using a first component carrier and when the succeeding transmission time interval is included in a switching period in which a component carrier used for the transmission of the uplink information is switched, refrain from transmitting the uplink information at the succeeding transmission time interval; and the uplink information is uplink information transmitted via a Physical Random Access Channel, PRACH, Sounding Reference Signal, SRS, or uplink information transmitted via a Physical Uplink Control Channel, PUCCH. an uplink transmission processing unit configured to transmit uplink information at transmission time intervals, wherein the uplink transmission processing unit is configured to transmit the uplink information at each of the transmission time intervals using only one component carrier, and wherein the uplink transmission processing unit is adapted to, when the uplink information is to be transmitted using a second component carrier at the succeeding transmission time interval in which the uplink information is transmitted using a first component carrier and when the succeeding transmission time interval is included in a switching period in which a component carrier used for the transmission of the uplink information is switched, refrain from transmitting the uplink information at the succeeding transmission time interval; and the uplink information is uplink information transmitted via a Physical Random Access Channel, PRACH, Sounding Reference Signal, SRS, or uplink information transmitted via a Physical Uplink Control Channel, PUCCH.
A method for preparing mixed-metal oxide particles comprising less than 5 wt%, by weight of the mixed-metal oxide particles, of spinel-phases having a formula MAl 2 O 4, the process comprising: heat ing adamantane-intercalated layered double-hydroxide particles up to a reaction temperature of from 400 °C to 800 °C to form mixed-metal oxide particles, where: the adamantane-intercalated LDH particles have a length and a width; a general formula [M 1-x Al x 2] x •mH 2 O, where x is from 0.14 to 0.33, m is from 0.33 to 0.50, M is chosen from Mg, Ca, Co, Ni, Cu, or Zn, and A is adamantane carboxylate; and an aspect ratio greater than 100 where the aspect ratio is defined by the width of an adamantane-intercalated LDH particle divided by the thickness of the adamantane-intercalated LDH particle; and the mixed-metal oxide particles comprise a mixed-metal oxide phase containing M, Al and carbon. the adamantane-intercalated LDH particles have a length and a width; a general formula [M 1-x Al x 2] x •mH 2 O, where x is from 0.14 to 0.33, m is from 0.33 to 0.50, M is chosen from Mg, Ca, Co, Ni, Cu, or Zn, and A is adamantane carboxylate; and an aspect ratio greater than 100 where the aspect ratio is defined by the width of an adamantane-intercalated LDH particle divided by the thickness of the adamantane-intercalated LDH particle; and a length and a width; a general formula [M 1-x Al x 2] x •mH 2 O, where x is from 0.14 to 0.33, m is from 0.33 to 0.50, M is chosen from Mg, Ca, Co, Ni, Cu, or Zn, and A is adamantane carboxylate; and an aspect ratio greater than 100 where the aspect ratio is defined by the width of an adamantane-intercalated LDH particle divided by the thickness of the adamantane-intercalated LDH particle; and the mixed-metal oxide particles comprise a mixed-metal oxide phase containing M, Al and carbon.
A process for synthesizing a targeted imaging agent comprising a targeting group and an imaging agent comprising a chelated metal, which process comprises: providing a pre-formed α-amino acid imaging agent consisting of an α-amino acid molecule in which one of the α-amine and the α-acid is protected, the other of the α-amine and the α-acid is free, and the side chain is modified by conjugation to an imaging agent comprising said chelated metal; wherein the α-amino acid molecule is lysine; providing a targeting group containing one or more amine, sulfide or carboxylic acid groups; and coupling the pre-formed α-amino acid imaging agent to the targeting group through said one or more amine, sulfide, or carboxylic acid groups in said targeting group, in a manner to provide a targeted imaging agent. providing a pre-formed α-amino acid imaging agent consisting of an α-amino acid molecule in which one of the α-amine and the α-acid is protected, the other of the α-amine and the α-acid is free, and the side chain is modified by conjugation to an imaging agent comprising said chelated metal; wherein the α-amino acid molecule is lysine; providing a targeting group containing one or more amine, sulfide or carboxylic acid groups; and coupling the pre-formed α-amino acid imaging agent to the targeting group through said one or more amine, sulfide, or carboxylic acid groups in said targeting group, in a manner to provide a targeted imaging agent.
Impeller for an engine fan comprising a shroud delimiting an air flow passage through which blades extend, the impeller comprising a hub that can be linked in rotation to a shaft of a drive motor, each blade extending radially from the hub by their inner end, each blade comprising a leading edge and a trailing edge, the impeller comprising a means for angular displacement of the blades with respect to the hub such that the pitch of the blades can vary between at least one opening configuration in which the leading and trailing edges (62, 63) of two adjacent blades are mutually separated from one another and a configuration of closure of the air passage of the shroud in which these same edges are brought together such that the blades form a wall blocking the air passage, characterized in that said means for angular displacement of the blades comprises a support linked in rotation to the hub, a disc that is movable in translation along the axis of rotation of the hub, and an electromagnet allowing an optimized management of the flow of air both when the impeller is stopped and during the forced rotation of the impeller by the motor.
A vacuum pump comprising a housing; at least one functional unit arranged in the housing; and at least one counter-unit which is arranged outside the housing and which is connected electrically and/or in an IT regard to the functional unit via at least one line, characterized in that the line extends through an opening formed in a housing wall, with the counter-unit being attached outside to the housing wall and covering the opening in an operating orientation, and with the opening and the counter-unit being matched to one another with respect to their dimensions such that the counter-unit can be guided through the opening in an assembly orientation which differs from the operating orientation.
A filter assembly for mating with a tubesheet (410; 510) of a filtration system, said filter assembly comprising: filter media (110; 610) arranged about a central media opening, the filter media (110; 610) having a first end and a second end and the central media opening extends in an axial direction from the first end towards the second end; and an endcap (130; 200; 300) coupled to the first end of the filter media (110; 610), the endcap (130; 200; 300) defining: an endcap opening (136; 230; 330) in fluid communication with the central media opening, an inner surface (138; 638) abutting and surrounding the endcap opening (136; 230; 330), a perimetric sealing surface (140; 220; 320) about the endcap (130; 200; 300) configured to mate with a filter opening (420; 520) of the tubesheet (410; 510)wherein a first portion of the perimetric sealing surface (140; 220; 320) projects inwardly towards the endcap opening (136; 230; 330) and a second portion of the perimetric sealing surface (140; 220; 320) projects outwardly from the endcap opening (136; 230; 330), wherein the first portion and the second portion are in axial alignment, and wherein the perimetric sealing surface (140; 220; 320) forms an oblong loop in a first cross-section orthogonal to the axial direction, an endcap rim extending outwardly from the perimetric sealing surface (140; 220; 320) and abutting the perimetric sealing surface about a length of the perimetric sealing surface (140; 220; 320) around the endcap (130; 200; 300), said endcap rim being configured to abut a main surface of the tubesheet (410; 510) about the filter opening (420; 520). an endcap opening (136; 230; 330) in fluid communication with the central media opening, an inner surface (138; 638) abutting and surrounding the endcap opening (136; 230; 330), a perimetric sealing surface (140; 220; 320) about the endcap (130; 200; 300) configured to mate with a filter opening (420; 520) of the tubesheet (410; 510)wherein a first portion of the perimetric sealing surface (140; 220; 320) projects inwardly towards the endcap opening (136; 230; 330) and a second portion of the perimetric sealing surface (140; 220; 320) projects outwardly from the endcap opening (136; 230; 330), wherein the first portion and the second portion are in axial alignment, and wherein the perimetric sealing surface (140; 220; 320) forms an oblong loop in a first cross-section orthogonal to the axial direction, an endcap rim extending outwardly from the perimetric sealing surface (140; 220; 320) and abutting the perimetric sealing surface about a length of the perimetric sealing surface (140; 220; 320) around the endcap (130; 200; 300), said endcap rim being configured to abut a main surface of the tubesheet (410; 510) about the filter opening (420; 520).