mhurhangee/ep-ind-claims huggingface dataset:
A line array loudspeaker, comprising: a first group of acoustic drivers comprising a first plurality of acoustic drivers each comprising an axis, the first plurality of acoustic drivers arranged so that their axes are parallel, and a second plurality of acoustic drivers each comprising an axis, the second plurality of acoustic drivers arranged so that their axes are parallel, wherein the first and second plurality of acoustic drivers are arranged such that a projection onto an azimuth plane of the axes of the first plurality of acoustic drivers intersects with a projection onto the azimuth plane of the axes of the second plurality of acoustic drivers at a first, fixed articulation angle; and a second group of acoustic drivers, the second group adjacent to the first group and comprising a third plurality of acoustic drivers each comprising an axis, wherein a projection onto the azimuth plane of the axes of the third plurality of acoustic drivers intersect at varied articulation angles, wherein the projections onto the azimuth plane of the axes of a first pair of acoustic drivers of the second group of acoustic drivers intersect at a second articulation angle that is less than the first articulation angle, wherein the projections onto the azimuth plane of the axes of a second pair of acoustic drivers of the second group of acoustic drivers intersect at a third articulation angle that is different than both the first and second articulation angles. a first group of acoustic drivers comprising a first plurality of acoustic drivers each comprising an axis, the first plurality of acoustic drivers arranged so that their axes are parallel, and a second plurality of acoustic drivers each comprising an axis, the second plurality of acoustic drivers arranged so that their axes are parallel, wherein the first and second plurality of acoustic drivers are arranged such that a projection onto an azimuth plane of the axes of the first plurality of acoustic drivers intersects with a projection onto the azimuth plane of the axes of the second plurality of acoustic drivers at a first, fixed articulation angle; and a second group of acoustic drivers, the second group adjacent to the first group and comprising a third plurality of acoustic drivers each comprising an axis, wherein a projection onto the azimuth plane of the axes of the third plurality of acoustic drivers intersect at varied articulation angles, wherein the projections onto the azimuth plane of the axes of a first pair of acoustic drivers of the second group of acoustic drivers intersect at a second articulation angle that is less than the first articulation angle, wherein the projections onto the azimuth plane of the axes of a second pair of acoustic drivers of the second group of acoustic drivers intersect at a third articulation angle that is different than both the first and second articulation angles.
A method to manage wireless network resources in a wireless local area network, WLAN, controller, comprising: maintaining, in a memory coupled to the controller, a list of specified service set identifier, SSID, devices, wherein the SSID devices are access point devices; maintaining a plurality of designated communication channels available for use in a wireless network environment; defining at least a first reserved communication channel from the plurality of communication channels; receiving a request from an SSID device for access to wireless network resources managed by the WLAN controller; and allocating the at least a first reserved communication channel to the SSID device when the SSID device is on the list of specified SSID devices. maintaining, in a memory coupled to the controller, a list of specified service set identifier, SSID, devices, wherein the SSID devices are access point devices; maintaining a plurality of designated communication channels available for use in a wireless network environment; defining at least a first reserved communication channel from the plurality of communication channels; receiving a request from an SSID device for access to wireless network resources managed by the WLAN controller; and allocating the at least a first reserved communication channel to the SSID device when the SSID device is on the list of specified SSID devices.
A method for producing a compound represented by general formula, comprising a step of reacting a compound represented by general formula in the presence of a metal catalyst comprising a metal element, wherein the metal element of the metal catalyst is at least one selected from the group consisting of aluminum, zirconium, and titanium, and an alcohol comprising at least one selected from the group consisting of a primary alcohol and a secondary alcohol to obtain the compound represented by general formula, wherein the group -A 1 - (where the front bond denotes a bond that bonds with a carbon atom C 1 while the back bond denotes a bond that bonds with a carbon atom C 2) is an alkylene group with 4 or more and 16 or less of carbon atoms that may optionally contain a hetero atom and that may optionally have a substituent, and R 1 is hydrogen or an alkyl group with 1 or more and 6 or less of carbon atoms. reacting a compound represented by general formula in the presence of a metal catalyst comprising a metal element, wherein the metal element of the metal catalyst is at least one selected from the group consisting of aluminum, zirconium, and titanium, and an alcohol comprising at least one selected from the group consisting of a primary alcohol and a secondary alcohol to obtain the compound represented by general formula, wherein the group -A 1 - (where the front bond denotes a bond that bonds with a carbon atom C 1 while the back bond denotes a bond that bonds with a carbon atom C 2) is an alkylene group with 4 or more and 16 or less of carbon atoms that may optionally contain a hetero atom and that may optionally have a substituent, and R 1 is hydrogen or an alkyl group with 1 or more and 6 or less of carbon atoms.
A method of writing secure data to a tag associated with an object, comprising: receiving, at a trusted authority, data from a phone, the received data including tag data and user-entered data; and based on the received data, generating, at the trusted authority, a validation signature for a tag; wherein the trusted authority causes the phone to write the generated validation signature and the received user-entered data into a memory of the tag. receiving, at a trusted authority, data from a phone, the received data including tag data and user-entered data; and based on the received data, generating, at the trusted authority, a validation signature for a tag; wherein the trusted authority causes the phone to write the generated validation signature and the received user-entered data into a memory of the tag.
A link resource transmission method, comprising: flooding, by a first node, first control routing information, wherein the first control routing information comprises an identifier of an area in which the first node is located; receiving, by the first node, second control routing information flooded by a second node, wherein the second control routing information comprises an identifier of an area in which the second node is located; determining, by the first node through comparison, whether the identifier of the area in which the first node is located is consistent with the identifier of the area in which the second node is located; and when the identifier of the area in which the first node is located is consistent with the identifier of the area in which the second node is located, transmitting, by the first node, link data information of the first node to the second node. flooding, by a first node, first control routing information, wherein the first control routing information comprises an identifier of an area in which the first node is located; receiving, by the first node, second control routing information flooded by a second node, wherein the second control routing information comprises an identifier of an area in which the second node is located; determining, by the first node through comparison, whether the identifier of the area in which the first node is located is consistent with the identifier of the area in which the second node is located; and when the identifier of the area in which the first node is located is consistent with the identifier of the area in which the second node is located, transmitting, by the first node, link data information of the first node to the second node.
A process for producing a nanoparticle, said process comprises the steps of: a) mixing an ester polymer conjugate with a biologically active compound in an organic medium, and b) desolvating the ester polymer conjugate by means of adding alcohol and water, in the presence of a divalent metal, wherein the ester polymer conjugate is a conjugate of poly(methyl vinyl ether-co-maleic anhydride) with a hydroxyl-terminated molecule, wherein said hydroxyl-terminated molecule is selected from a polyethylene glycol and a derivative thereof containing a hydroxyl-terminal reactive group. a) mixing an ester polymer conjugate with a biologically active compound in an organic medium, and b) desolvating the ester polymer conjugate by means of adding alcohol and water, in the presence of a divalent metal,
A bit holder (10, 60, 110) assembly for a rotary tool, comprising: a body (12, 62, 112) having a shank (16, 66, 116) at its rearward end and a coaxial socket (20, 70, 120) formed at a second end to allow a tool bit to be inserted therein, said body having an opening (26, 76, 126) formed in the body in communication with said socket; a retraction collar (14, 64b, 114) slidably disposed on said body; a coil spring (30, 80, 130) biasing the retraction collar forwardly; a retainer (34, 84, 134) held in a bottom of said opening (26, 76, 126) formed in the body by one of said retraction collar and said coil spring, wherein said tool bit is removed by sliding the retraction collar (14, 64b, 114) rearwardly, to compress the coil spring (30, 80, 130) and allow the retainer (34, 84, 134) to retract back up the opening (26, 86, 126); and characterized in also comprising a ring magnet disposed at a forward end of the retraction collar (14, 64b, 114) to magnetize and engage a fastener to retain the fastener to the tool bit, wherein said ring magnet is attached to a forward collar removably received on said retraction collar. a body (12, 62, 112) having a shank (16, 66, 116) at its rearward end and a coaxial socket (20, 70, 120) formed at a second end to allow a tool bit to be inserted therein, said body having an opening (26, 76, 126) formed in the body in communication with said socket; a retraction collar (14, 64b, 114) slidably disposed on said body; a coil spring (30, 80, 130) biasing the retraction collar forwardly; a retainer (34, 84, 134) held in a bottom of said opening (26, 76, 126) formed in the body by one of said retraction collar and said coil spring, wherein said tool bit is removed by sliding the retraction collar (14, 64b, 114) rearwardly, to compress the coil spring (30, 80, 130) and allow the retainer (34, 84, 134) to retract back up the opening (26, 86, 126); and characterized in also comprising a ring magnet disposed at a forward end of the retraction collar (14, 64b, 114) to magnetize and engage a fastener to retain the fastener to the tool bit, wherein said ring magnet is attached to a forward collar removably received on said retraction collar.
Wire netting (10a; 10d; 10e), in particular safety net, with a plurality of helices (12a; 12d; 12e) which are braided with one another and at least one of which is manufactured of at least one single wire, a wire bundle, a wire strand, a wire rope and/or another longitudinal element (16a; 16d; 16e) with at least one wire (18a; 18d; 18e), and which comprises at least one first leg (20a; 20d; 20e), at least one second leg (22a; 22d; 22e) and at least one bending region (24a; 24d; 24e) connecting the first leg (20a; 20d; 20e) and the second leg (22a; 22d; 22e) to one another, wherein, in a longitudinal view in parallel to a longitudinal direction (28a; 28d; 28e) of the helix (12a; 12d; 12e), the bending region (24a; 24d; 24e) comprises at least one bending zone (34a; 34d; 34e) with a bending curvature and at least one first transition zone (36a; 36d; 36e) which is connected to the first leg (20a; 20d; 20e) and has a first transition curvature that differs from the bending curvature, wherein the first leg (20a; 20b; 20c) and/or the second leg (22a; 22b; 22c) at least section-wise follow/s a straight course, and wherein the wire (18a; 18b; 18c) is at least partially made of a high-tensile steel having a tensile strength of at least 800 N mm -2. wherein, in a longitudinal view in parallel to a longitudinal direction (28a; 28d; 28e) of the helix (12a; 12d; 12e), the bending region (24a; 24d; 24e) comprises at least one bending zone (34a; 34d; 34e) with a bending curvature and at least one first transition zone (36a; 36d; 36e) which is connected to the first leg (20a; 20d; 20e) and has a first transition curvature that differs from the bending curvature, wherein the first leg (20a; 20b; 20c) and/or the second leg (22a; 22b; 22c) at least section-wise follow/s a straight course, and wherein the wire (18a; 18b; 18c) is at least partially made of a high-tensile steel having a tensile strength of at least 800 N mm -2.
A sport ball comprising: a casing that forms an exterior surface of the sport ball, the casing incorporating a plurality of joined panel elements that include a first panel element and a second panel element, the first panel element having a first edge with a projection that extends outward from the first edge, and the second panel element having a second edge that is located adjacent to the first edge; and a bladder located within the casing, the projection of the first edge being located between the second edge and the bladder, characterized in that the first edge is welded to the second edge. a casing that forms an exterior surface of the sport ball, the casing incorporating a plurality of joined panel elements that include a first panel element and a second panel element, the first panel element having a first edge with a projection that extends outward from the first edge, and the second panel element having a second edge that is located adjacent to the first edge; and a bladder located within the casing, the projection of the first edge being located between the second edge and the bladder, characterized in that the first edge is welded to the second edge.
A process for producing a diamond thin-film characterized by comprising: a first process-step of forming at least two diamond crystal substrates, wherein each diamond crystal substrate is constituted by forming a diamond crystal thin-film (2-1, 3-12, 3-22, 3-32) on a substrate (3-11, 3-21, 3-31); a second process-step of superimposing said diamond crystal substrates so that surfaces of said diamond crystal thin-films contact with each other; and a third process-step of annealing said superimposed diamond crystal substrates, wherein, in said first process-step, at least either control of temperature for heating said substrate when said diamond crystal thin-film is formed, or control of the ratio of the flow rate of methane to the flow rate of hydrogen in said methane and said hydrogen used when said diamond crystal thin-film is formed is performed, wherein said ratio is controlled so as to exceed 0% and to be no more than 0.5%, wherein the relation between a pressure P(GPa) and a temperature T when said annealing is carried out satisfies the relation of the expression P≥0.71+0.0027T, and also said annealing is carried out under a pressure of P≥1.5GPa. a first process-step of forming at least two diamond crystal substrates, wherein each diamond crystal substrate is constituted by forming a diamond crystal thin-film (2-1, 3-12, 3-22, 3-32) on a substrate (3-11, 3-21, 3-31); a second process-step of superimposing said diamond crystal substrates so that surfaces of said diamond crystal thin-films contact with each other; and a third process-step of annealing said superimposed diamond crystal substrates,
A delivery system for targeted delivery of a therapeutically active payload, comprising • an avidin core, wherein the avidin core consists of avidin, neutravidin or streptavidin; • at least one targeting molecule selected from the group consisting of antibody single-chain variable fragments (scFv), • at least one the therapeutically active payload selected from the group consisting of proteins, peptides and therapeutically active nucleic acids, wherein • said at least one targeting molecule and said at least one therapeutically active payload are bound to the avidin core; • said antibody single-chain variable fragment is comprised in a construct, having the structure: antibody single-chain variable fragment - biotinylation acceptor peptide; or antibody single-chain variable fragment - linker - BAP; and • this construct is mono-biotinylated at the BAP, wherein said BAP is selected from the group consisting of: • • ∘ LX 1 X 2 IFEAQKIEWR (SEQ ID NO: 7), wherein X 1 = any amino acid; and X 2 = is any amino acid except L, V, I, W, F or Y; ∘ GLNDIFEAQKIEWHE (SEQ ID NO. 8); ∘ ALNDIFEAQKIEWHA (SEQ ID NO: 9); ∘ MAGGLNDIFEAQKIEWHEDTGGS (SEQ ID NO. 10); MSGLNDIFEAQKIEWHEGAPSSR (SEQ ID NO: 11); and ∘ LHHILDAQKMVWNHR (SEQ ID NO: 12). • an avidin core, wherein the avidin core consists of avidin, neutravidin or streptavidin; • at least one targeting molecule selected from the group consisting of antibody single-chain variable fragments (scFv), • at least one the therapeutically active payload selected from the group consisting of proteins, peptides and therapeutically active nucleic acids, • said at least one targeting molecule and said at least one therapeutically active payload are bound to the avidin core; • said antibody single-chain variable fragment is comprised in a construct, having the structure: antibody single-chain variable fragment - biotinylation acceptor peptide; or antibody single-chain variable fragment - linker - BAP; and antibody single-chain variable fragment - biotinylation acceptor peptide; or antibody single-chain variable fragment - linker - BAP; and • this construct is mono-biotinylated at the BAP, • • ∘ LX 1 X 2 IFEAQKIEWR (SEQ ID NO: 7), wherein X 1 = any amino acid; and X 2 = is any amino acid except L, V, I, W, F or Y; ∘ GLNDIFEAQKIEWHE (SEQ ID NO. 8); ∘ ALNDIFEAQKIEWHA (SEQ ID NO: 9); ∘ MAGGLNDIFEAQKIEWHEDTGGS (SEQ ID NO. 10); MSGLNDIFEAQKIEWHEGAPSSR (SEQ ID NO: 11); and ∘ LHHILDAQKMVWNHR (SEQ ID NO: 12). X 1 = any amino acid; and X 2 = is any amino acid except L, V, I, W, F or Y; ∘ GLNDIFEAQKIEWHE (SEQ ID NO. 8); ∘ ALNDIFEAQKIEWHA (SEQ ID NO: 9); ∘ MAGGLNDIFEAQKIEWHEDTGGS (SEQ ID NO. 10); MSGLNDIFEAQKIEWHEGAPSSR (SEQ ID NO: 11); and ∘ LHHILDAQKMVWNHR (SEQ ID NO: 12).
A method comprising: receiving, in a quorum server, a route information message or duplication of the route information message from a node of an ad hoc network including a plurality of nodes, the node having sent or received the route information message during implementation of a routing protocol to determine a route between the nodes; identifying, in the quorum server, based on the route information message, one or more of the nodes from among nodes associated with the quorum server intended to also receive the route information message or intended to be part of the determined route, wherein any first node becomes associated with the quorum server by the quorum server receiving an association request from the first node, transmitting a reply message to the first node and receiving an association acceptance message from the first node; preparing, in the quorum server, an instruction message for transmission to one or more of the nodes such that the identified one or more nodes enter or remain in an active mode, and the nodes other than the identified one or more of the nodes to enter or remain in a power-saving mode, and causing, in the quorum server, the instruction message to be sent to the one or more nodes. receiving, in a quorum server, a route information message or duplication of the route information message from a node of an ad hoc network including a plurality of nodes, the node having sent or received the route information message during implementation of a routing protocol to determine a route between the nodes; identifying, in the quorum server, based on the route information message, one or more of the nodes from among nodes associated with the quorum server intended to also receive the route information message or intended to be part of the determined route, wherein any first node becomes associated with the quorum server by the quorum server receiving an association request from the first node, transmitting a reply message to the first node and receiving an association acceptance message from the first node; preparing, in the quorum server, an instruction message for transmission to one or more of the nodes such that the identified one or more nodes enter or remain in an active mode, and the nodes other than the identified one or more of the nodes to enter or remain in a power-saving mode, and causing, in the quorum server, the instruction message to be sent to the one or more nodes.
A compound of formula: A-B-C wherein: A is, wherein all instances of R 1 are H; B is selected from the group consisting of:, and q is 0, 1, 2, or 3; and p is 2; C is R 2 is, and n in R 2 is 0 or 1; R 4 is heterocycloalkyl; R 5 is F; R a is H; and the absolute configuration at any stereocenter is R, S, or a mixture thereof; or a pharmaceutically acceptable salt thereof. A is, wherein all instances of R 1 are H; B is selected from the group consisting of:, and q is 0, 1, 2, or 3; and p is 2; C is R 2 is, and n in R 2 is 0 or 1; R 4 is heterocycloalkyl; R 5 is F; R a is H; and the absolute configuration at any stereocenter is R, S, or a mixture thereof; or a pharmaceutically acceptable salt thereof.