mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula I or a pharmaceutically acceptable salt thereof, wherein R 1 is allyl; R 2 is chosen from hydrogen, (C 1 -C 6)acyl, (C 1 -C 6)oxaalkyl, and (C 1 -C 6)acyloxaalky; R 3 is chosen from hydrogen and (C 1 -C 6)alkyl; R 4 is chosen from (a) phenyl substituted at other than the 2- or 6-position with from one to three substituents chosen from amino, bromo, chloro, iodo, hydroxy, nitro, cyano, (C 1 -C 3)alkyl, (C 1 -C 3)haloalkyl, (C 1 -C 3)haloalkoxy, (C 1 -C 3)alkoxy, and R 10; (b) optionally substituted naphthylene; (c) optionally substituted anthracene; and (d) optionally substituted aromatic heterocycle; R 8 is chosen from hydrogen and (C 1 -C 6)alkyl; and R 10 is optionally substituted phenyl, optionally substituted aromatic heterocycle or optionally substituted non-aromatic oxygen or sulfur heterocycle; wherein the substituents on naphthylene, anthracene, heterocycle or R 10 are chosen independently from halogen, hydroxy, nitro, cyano, (C 1 -C 3)alkyl, (C 1 -C 3)haloalkyl, (C 1 -C 3)haloalkoxy, (C 1 -C 3)acyl, and (C 1 -C 3)alkoxy. R 1 is allyl; R 2 is chosen from hydrogen, (C 1 -C 6)acyl, (C 1 -C 6)oxaalkyl, and (C 1 -C 6)acyloxaalky; R 3 is chosen from hydrogen and (C 1 -C 6)alkyl; R 4 is chosen from (a) phenyl substituted at other than the 2- or 6-position with from one to three substituents chosen from amino, bromo, chloro, iodo, hydroxy, nitro, cyano, (C 1 -C 3)alkyl, (C 1 -C 3)haloalkyl, (C 1 -C 3)haloalkoxy, (C 1 -C 3)alkoxy, and R 10; (b) optionally substituted naphthylene; (c) optionally substituted anthracene; and (d) optionally substituted aromatic heterocycle; (a) phenyl substituted at other than the 2- or 6-position with from one to three substituents chosen from amino, bromo, chloro, iodo, hydroxy, nitro, cyano, (C 1 -C 3)alkyl, (C 1 -C 3)haloalkyl, (C 1 -C 3)haloalkoxy, (C 1 -C 3)alkoxy, and R 10; (b) optionally substituted naphthylene; (c) optionally substituted anthracene; and (d) optionally substituted aromatic heterocycle; R 8 is chosen from hydrogen and (C 1 -C 6)alkyl; and R 10 is optionally substituted phenyl, optionally substituted aromatic heterocycle or optionally substituted non-aromatic oxygen or sulfur heterocycle; wherein the substituents on naphthylene, anthracene, heterocycle or R 10 are chosen independently from halogen, hydroxy, nitro, cyano, (C 1 -C 3)alkyl, (C 1 -C 3)haloalkyl, (C 1 -C 3)haloalkoxy, (C 1 -C 3)acyl, and (C 1 -C 3)alkoxy.
A child safety seat, comprising a seat body and a collapsible support device, wherein the collapsible support device comprises a first supporting part and a second supporting part, an end of the first supporting part being pivotally connected to the child safety seat, wherein: the first supporting part being selectively rotated relative to the child safety seat to be located at one of a use position and a storage position; the second supporting part being pivotally connected to another end of the first supporting part to be capable of being collapsed to the first supporting part; and the second supporting part being selectively rotated relative to the first supporting part to be located at one of a supporting position, where the second supporting part protrudes out of the first supporting part, and a collapsed position, where the second supporting part is collapsed to the first supporting part, wherein when the first supporting part is located at the use position, the child safety seat is at a first forward use state, and when the first supporting part is located at the storage position, the child safety seat is at a rearward use state, wherein in the rearward use state the first supporting part with the second supporting part collapsed therein is stored onto the seat body. the first supporting part being selectively rotated relative to the child safety seat to be located at one of a use position and a storage position; the second supporting part being pivotally connected to another end of the first supporting part to be capable of being collapsed to the first supporting part; and the second supporting part being selectively rotated relative to the first supporting part to be located at one of a supporting position, where the second supporting part protrudes out of the first supporting part, and a collapsed position, where the second supporting part is collapsed to the first supporting part, wherein when the first supporting part is located at the use position, the child safety seat is at a first forward use state, and when the first supporting part is located at the storage position, the child safety seat is at a rearward use state, wherein in the rearward use state the first supporting part with the second supporting part collapsed therein is stored onto the seat body.
Insulating glass element for a glass facade, at least comprising: 1.1. a stepped glazing having at least two glass panes (2a, 2i), 1.2. at least one adapter profile strip which is designed to run at least partially around the insulating glass element and which, in the mounted state, is arranged between an outer glass panel of the stepped glazing and a frame of the glass facade, and 1.3. at least one securing clamp, 1.4. characterized in that the outer glass pane and the at least one adapter profile strip each have at least one groove in the lateral edges in which the at least one securing clamp engages, and 1.5. the at least one adapter profile strip has, on each of the vertical sides of the insulating glass element, at least one channel-shaped, continuous depression, wherein the depressions are designed to extend obliquely, wherein 1.6. the at least one depression extends from the inner side of a cavity, which is formed between the frame and the insulating glass element, to the outer side. 1.1. a stepped glazing having at least two glass panes (2a, 2i), 1.2. at least one adapter profile strip which is designed to run at least partially around the insulating glass element and which, in the mounted state, is arranged between an outer glass panel of the stepped glazing and a frame of the glass facade, and 1.3. at least one securing clamp, 1.4. characterized in that the outer glass pane and the at least one adapter profile strip each have at least one groove in the lateral edges in which the at least one securing clamp engages, and 1.5. the at least one adapter profile strip has, on each of the vertical sides of the insulating glass element, at least one channel-shaped, continuous depression, wherein the depressions are designed to extend obliquely, wherein 1.6. the at least one depression extends from the inner side of a cavity, which is formed between the frame and the insulating glass element, to the outer side.
Method for operating a resistance welding device with a welding transformer, which has a primary winding and a secondary winding (11, 12) with a centre tap, the primary winding being activated by means of activation pulses generated by an activation device in such a way as to result in a regularly recurring change of the polarity of the direct voltage (Up) present across the primary winding within a predefined time period, characterized in that activation pulses with preferably alternating positive and negative polarity are generated by the activation device for the predefined time period, the number of activation pulses within the predefined time period being variable by means of the activation device and the pulse width of the activation pulses being kept constant during the welding operation within the usual tolerances of the activation device.
An in vitro method for the diagnosis of endometriosis in a subject, comprising the following steps: a) determining the concentration of SEQ ID NO 6, (Zn-alpha-2-glycoprotein) or mutants and/or post-translational variants thereof, in a biological sample of said subject and in a control sample; b) comparing said concentration in said biological sample and said control sample wherein an increase of the concentration of said SEQ ID NO 6 with respect to the same protein in said control is indicative of endometriosis. a) determining the concentration of SEQ ID NO 6, (Zn-alpha-2-glycoprotein) or mutants and/or post-translational variants thereof, in a biological sample of said subject and in a control sample; b) comparing said concentration in said biological sample and said control sample
A non-destructive testing system for testing a work piece from within the work piece, comprising: an ultrasonic probe, located within the work piece, which is configured to rotate a sound beam about a middle axis and to produce C-scan images and S-scan images; and a hand-held display (130,140) in communication with the ultrasonic probe; wherein the hand-held display (130,140) is configured to switch between displaying C-scan images in a radar-like view with a beam cursor or, using a position of the beam cursor, displaying S-scan images corresponding to the position of the beam cursor. an ultrasonic probe, located within the work piece, which is configured to rotate a sound beam about a middle axis and to produce C-scan images and S-scan images; and a hand-held display (130,140) in communication with the ultrasonic probe; wherein the hand-held display (130,140) is configured to switch between displaying C-scan images in a radar-like view with a beam cursor or, using a position of the beam cursor, displaying S-scan images corresponding to the position of the beam cursor.
GNSS antenna, comprising: - at least one dielectric support substrate having a front surface and a rear surface; - at least two radiation structures attached (3a,3b) to the front surface of said support substrate, each radiation structure comprising: ∘ a feeding section (4a,4b) configured to be connected to an external feeding structure, and ∘ at least one substantially spiral-shaped section (5a,5b) connected to said feeding section, wherein the feeding sections of the radiation structures are facing each other, and wherein at least two radiation structures are positioned at a distance from each other; and - preferably, at least one parasitic structure attached to the rear surface of said support substrate, characterised in that the substantially spiral-shaped section of at least one radiation structure has the shape of a polynomial spiral, for which the curvature changes preferably substantially linearly with the arc length, and wherein rotation θ of a radius vector ρ of the polynomial spiral complies with the formula: wherein: - A, B, m, n 1 ∈ R 0 +; n 2, n 3 ∈ R; - f ( θ) = e bθ; and - g1(θ), g2(θ) are planar functions. - at least one dielectric support substrate having a front surface and a rear surface; - at least two radiation structures attached (3a,3b) to the front surface of said support substrate, each radiation structure comprising: ∘ a feeding section (4a,4b) configured to be connected to an external feeding structure, and ∘ at least one substantially spiral-shaped section (5a,5b) connected to said feeding section, wherein the feeding sections of the radiation structures are facing each other, and wherein at least two radiation structures are positioned at a distance from each other; and ∘ a feeding section (4a,4b) configured to be connected to an external feeding structure, and ∘ at least one substantially spiral-shaped section (5a,5b) connected to said feeding section, - preferably, at least one parasitic structure attached to the rear surface of said support substrate, characterised in that the substantially spiral-shaped section of at least one radiation structure has the shape of a polynomial spiral, for which the curvature changes preferably substantially linearly with the arc length, and wherein rotation θ of a radius vector ρ of the polynomial spiral complies with the formula: wherein: - A, B, m, n 1 ∈ R 0 +; n 2, n 3 ∈ R; - f ( θ) = e bθ; and - g1(θ), g2(θ) are planar functions. - A, B, m, n 1 ∈ R 0 +; n 2, n 3 ∈ R; - f ( θ) = e bθ; and - g1(θ), g2(θ) are planar functions.
A composition for treatment of rheumatic arthritis, comprising: - therapeutically active chitooligomers of N-acetyl glucosamine and glucosamine, wherein the chitooligomers comprise hetero-chitooligomers which fulfill the following criteria: - said oligomers having a chain length in the range of 5-20 monomer residues - each oligomer chain can have two N-acetyl glucosamine residues on either or both ends of the oligomer chain, - the remaining internal part of the oligomer having at least enough amount of D residues to avoid that the sequence of said internal chain comprises an N-acetyl glucosamine residue adjacent to another N-acetyl glucosamine residue (such as AA), - in combination with glucosamine, - wherein the ratio between monomers and oligomers is in the range between about 1:5 to about 5:1, and - wherein the degree of deacetylation of said therapeutically active chitooligomers is in the range between 30 - 60%. - therapeutically active chitooligomers of N-acetyl glucosamine and glucosamine, wherein the chitooligomers comprise hetero-chitooligomers which fulfill the following criteria: - said oligomers having a chain length in the range of 5-20 monomer residues - each oligomer chain can have two N-acetyl glucosamine residues on either or both ends of the oligomer chain, - the remaining internal part of the oligomer having at least enough amount of D residues to avoid that the sequence of said internal chain comprises an N-acetyl glucosamine residue adjacent to another N-acetyl glucosamine residue (such as AA), - said oligomers having a chain length in the range of 5-20 monomer residues - each oligomer chain can have two N-acetyl glucosamine residues on either or both ends of the oligomer chain, - the remaining internal part of the oligomer having at least enough amount of D residues to avoid that the sequence of said internal chain comprises an N-acetyl glucosamine residue adjacent to another N-acetyl glucosamine residue (such as AA), - in combination with glucosamine, - wherein the ratio between monomers and oligomers is in the range between about 1:5 to about 5:1, and - wherein the degree of deacetylation of said therapeutically active chitooligomers is in the range between 30 - 60%.
Method for receiving a data packet containing at least position data in a transmission signal over a vehicle ad-hoc network, comprising: - filtering the received data packet based on a first filter condition and outputting the filtered data packet to a vehicle-internal processing apparatus (13, 46) for processing the filtered data packet, characterized in that, in parallel, - the received data packet is filtered based on a second filter condition and the filtered data packet is output to a forwarding apparatus (39, 42, 44) for forwarding the filtered data packet to a further subscriber of the vehicle ad-hoc network, wherein the first filter condition comprises a minimum signal strength for a signal strength of the transmission signal and the second filter condition comprises a maximum field strength for a signal strength of the transmission signal. - filtering the received data packet based on a first filter condition and outputting the filtered data packet to a vehicle-internal processing apparatus (13, 46) for processing the filtered data packet, characterized in that, in parallel, - the received data packet is filtered based on a second filter condition and the filtered data packet is output to a forwarding apparatus (39, 42, 44) for forwarding the filtered data packet to a further subscriber of the vehicle ad-hoc network, wherein the first filter condition comprises a minimum signal strength for a signal strength of the transmission signal and the second filter condition comprises a maximum field strength for a signal strength of the transmission signal.
An electronic device for controlling an external device using an identification number, the electronic device comprising: a processor configured to: receive a request for a call connection to an external device, said external device being a control target, wherein the request for the call connection includes information on an identification number corresponding to the external device, transmit the identification number to a server over a mobile network, in response to the request for the call connection; receive an identifier, corresponding to the identification number, of the external device, from the server, wherein the identifier is for accessing the external device; transmit a connection request to the external device using the received identifier of the external device; and control the external device by transmitting a control command to the external device, in response to receiving an indication regarding completion of access authentication from the external device; and a communication interface configured to perform communication with the external device and the server. a processor configured to: receive a request for a call connection to an external device, said external device being a control target, wherein the request for the call connection includes information on an identification number corresponding to the external device, transmit the identification number to a server over a mobile network, in response to the request for the call connection; receive an identifier, corresponding to the identification number, of the external device, from the server, wherein the identifier is for accessing the external device; transmit a connection request to the external device using the received identifier of the external device; and control the external device by transmitting a control command to the external device, in response to receiving an indication regarding completion of access authentication from the external device; and receive a request for a call connection to an external device, said external device being a control target, wherein the request for the call connection includes information on an identification number corresponding to the external device, transmit the identification number to a server over a mobile network, in response to the request for the call connection; receive an identifier, corresponding to the identification number, of the external device, from the server, wherein the identifier is for accessing the external device; transmit a connection request to the external device using the received identifier of the external device; and control the external device by transmitting a control command to the external device, in response to receiving an indication regarding completion of access authentication from the external device; and a communication interface configured to perform communication with the external device and the server.
Twin-rotor impact bar crusher for comminuting preferably limestone, marl, clay, building rubble or similar mineral materials, comprising two rotors (1, 2) arranged horizontally parallel to one another and impact bars rigidly fastened to the circumference of the rotors (1, 2) in a uniformly distributed manner and preferably extending over the entire length of the crushing space of the rotors (1, 2), wherein the two rotors (1, 2) are arranged next to one another at the same height, or virtually the same height, and have, when viewed from above, opposed inwardly directed directions of rotation, and an anvil strip extends between the rotors (1, 2), underneath the gap formed by them, and parallel to the rotor axes, characterized in that the anvil strip is mounted as hydraulically adjustable and/or compliant in the vertical direction.
A method for producing a cast wheel for a straddled vehicle, comprising: a casting step of forming, by casting, an intermediate product including a ring-shaped rim, a hub located inner to the rim and a plurality of spokes coupling the rim and the hub to each other; and a cutting step of performing a cutting process on the intermediate product after the casting step, wherein the intermediate product formed in the casting step further includes a plurality of plate-like connection portions each connecting two spokes adjacent to each other among the plurality of spokes, characterized in that in the casting step, portions of a cavity that correspond to the plate-like connection portions are used as a molten metal passage, and wherein the plurality of plate-like connection portions are removed in the cutting step. a casting step of forming, by casting, an intermediate product including a ring-shaped rim, a hub located inner to the rim and a plurality of spokes coupling the rim and the hub to each other; and a cutting step of performing a cutting process on the intermediate product after the casting step, wherein the intermediate product formed in the casting step further includes a plurality of plate-like connection portions each connecting two spokes adjacent to each other among the plurality of spokes, characterized in that in the casting step, portions of a cavity that correspond to the plate-like connection portions are used as a molten metal passage, and wherein the plurality of plate-like connection portions are removed in the cutting step.
System for handling eggs, comprising for each individual egg: - a movable pusher from a group at least comprising an extender (8; 17, 18; 34) having an axis and an egg support (15; 19) at a free end of the axis, a gripper and an injector (3; 43); - a brake associated with the pusher, wherein the brake is configured to selectively apply, on the pusher: ∗ a high brake force to fixedly engage the pusher; ∗ a low brake force to effectively allow free sliding movement of the pusher relative to the brake; and ∗ an intermediate brake force to allow the pusher to slip along the brake. - a movable pusher from a group at least comprising an extender (8; 17, 18; 34) having an axis and an egg support (15; 19) at a free end of the axis, a gripper and an injector (3; 43); - a brake associated with the pusher, wherein the brake is configured to selectively apply, on the pusher: ∗ a high brake force to fixedly engage the pusher; ∗ a low brake force to effectively allow free sliding movement of the pusher relative to the brake; and ∗ an intermediate brake force to allow the pusher to slip along the brake. ∗ a high brake force to fixedly engage the pusher; ∗ a low brake force to effectively allow free sliding movement of the pusher relative to the brake; and ∗ an intermediate brake force to allow the pusher to slip along the brake.