mhurhangee/ep-ind-claims huggingface dataset:
A squalamine-analogue aminosteroid compound having a general formula comprising a backbone of formula below, onto which 2 polyamine -NHR chains are grafted, R being an optionally substituted hydrocarbon chain containing at least one -NH 2 group: wherein: - either all the bonds lined with a dotted line between the carbons at positions 7-8, 5-6, 4-5, and 3-4 represent a single bond, the backbone being that of a 10, 13, 17 trimethyl cholestane, - or one of the bonds lined with a dotted line between the carbons at positions 7-8, 5-6, 4-5, and 3-4 represents a double bond and the other bonds lined with a dotted line are single bonds, the backbone being that of a 10, 13, 17 trimethyl cholestene, said compound having the general formula constituted by a said backbone of formula containing: a) 2 identical -NHR chains on the carbons at positions 3 and, respectively, 20, and R represents -[(CH 2) n -(NR 1) k -(CH 2) m] p -NH 2, with: - n and m, which may be identical or different, being integers from 1 to 7, - k = 0 or 1, - p being an integer from 1 to 4, - R 1 being selected from H, a C1 to C3 alkyl, a phenyl and a -COOalk group, alk being a C1 to C3 alkyl, R1 being optionally substituted by OH, NH 2, SH, or OSO 3 H, and b) the other carbons of said backbone of formula comprising a radical R 0, which may be identical or different, selected from H, NH 2, SH, or R 1, preferably R 0 being H or OH but with only 1 R 0 being OH. - either all the bonds lined with a dotted line between the carbons at positions 7-8, 5-6, 4-5, and 3-4 represent a single bond, the backbone being that of a 10, 13, 17 trimethyl cholestane, - or one of the bonds lined with a dotted line between the carbons at positions 7-8, 5-6, 4-5, and 3-4 represents a double bond and the other bonds lined with a dotted line are single bonds, the backbone being that of a 10, 13, 17 trimethyl cholestene, a) 2 identical -NHR chains on the carbons at positions 3 and, respectively, 20, and R represents -[(CH 2) n -(NR 1) k -(CH 2) m] p -NH 2, with: - n and m, which may be identical or different, being integers from 1 to 7, - k = 0 or 1, - p being an integer from 1 to 4, - R 1 being selected from H, a C1 to C3 alkyl, a phenyl and a -COOalk group, alk being a C1 to C3 alkyl, R1 being optionally substituted by OH, NH 2, SH, or OSO 3 H, and - n and m, which may be identical or different, being integers from 1 to 7, - k = 0 or 1, - p being an integer from 1 to 4, - R 1 being selected from H, a C1 to C3 alkyl, a phenyl and a -COOalk group, alk being a C1 to C3 alkyl, R1 being optionally substituted by OH, NH 2, SH, or OSO 3 H, and b) the other carbons of said backbone of formula comprising a radical R 0, which may be identical or different, selected from H, NH 2, SH, or R 1, preferably R 0 being H or OH but with only 1 R 0 being OH.
A retroreflective screen comprising a first film having a surface comprising a plurality of microrecesses, each microrecess having a bottom substantially parallel to the mean plane of the screen and first and second lateral walls substantially orthogonal to each other and substantially orthogonal to the bottom, the first and second lateral walls and the bottom of the microrecess joining at a same point and forming a trihedron, wherein, in each microrecess, the first and second lateral walls and the bottom of the microrecess are coated with a reflective metallization.
A computer-implemented method for numerical modular simulation of a system, comprising: (a) disaggregating said system into at least two subunit simulation subsystems, (b) simulating the respective subunits stepwise repeatedly generating subsystem-step-output from subsystem-step-input during a respective subsystem-time-step, wherein the computer-implemented method also comprises the additional steps for enabling numerical modular simulation of said system even if different platforms or different internal solvers are used for each subunit: ( c) transmitting subsystem-step-inputs to a receiving subsystem and simulating this subsystem over a delay-time before its subsystem-step-outputs are generated, ( d) receiving connection interface variables from a sending subsystem comprising at least one of: - numerical data, - at least parameters of a data-prediction-model of said numerical data, - a data-prediction-model assigned to said numerical data, wherein said numerical data belongs to said subsystem-step-output of said sending subsystem, comprising details about at least one information of the sending subsystem to be sent to at least one receiving subsystem, ( e) predicting said numerical data by a data-prediction-model over said delay-time to obtain predicted numerical data of said interface variables provided by said sending subsystem, ( f) starting the next simulation step of said receiving subsystem generating the next subsystem-step-output from subsystem-step-input, wherein said subsystem-step-input comprises said predicted numerical data. (a) disaggregating said system into at least two subunit simulation subsystems, (b) simulating the respective subunits stepwise repeatedly generating subsystem-step-output from subsystem-step-input during a respective subsystem-time-step, ( c) transmitting subsystem-step-inputs to a receiving subsystem and simulating this subsystem over a delay-time before its subsystem-step-outputs are generated, ( d) receiving connection interface variables from a sending subsystem comprising at least one of: - numerical data, - at least parameters of a data-prediction-model of said numerical data, - a data-prediction-model assigned to said numerical data, wherein said numerical data belongs to said subsystem-step-output of said sending subsystem, comprising details about at least one information of the sending subsystem to be sent to at least one receiving subsystem, - numerical data, - at least parameters of a data-prediction-model of said numerical data, - a data-prediction-model assigned to said numerical data, ( e) predicting said numerical data by a data-prediction-model over said delay-time to obtain predicted numerical data of said interface variables provided by said sending subsystem, ( f) starting the next simulation step of said receiving subsystem generating the next subsystem-step-output from subsystem-step-input, wherein said subsystem-step-input comprises said predicted numerical data.
Device for sterilising flexible bags comprising a sterilisation zone formed by at least two electron accelerators that are configured to emit electron beams at different energies, characterised in that it has a first accelerator that is configured to emit an electron beam at an energy of between 450-500 keV and a second accelerator that is configured to emit an electron beam at an energy of 700-750 keV.
A register having a narrow and long rectangular-shaped air outlet, with a front movable louver that is provided with a plurality of front fins turnably and disposed inside the air outlet, wherein the front movable louver is constituted so that while one central fin is axially supported at substantially the center of the inside of the air outlet turnably around an axis parallel to the longitudinal direction of the air outlet, a pair of auxiliary fins (8, 9) are axially supported in such a manner that the auxiliary fins (8, 9) are storable in storing recesses (6a, 6b) provided on the wall surfaces on both sides inside the air outlet and turnable around axes parallel to the axis of the central fin while being parallel to the central fin, the central fin is axially supported turnably by pivots provided on both sides of the vicinity of the downstream side end portion, and the pair of auxiliary fins (8, 9) are axially supported turnably so as to stick out their downstream side end portions to a passage side by pivots (8a, 9a) provided on both sides of the vicinities of the upstream side end portions, a cam link mechanism is provided which turns the auxiliary fins (8, 9) so that when the central fin is turned in the short-side direction of the air outlet, one of the auxiliary fins (8, 9) sticks out its downstream side end portion to the passage side, and the other auxiliary fin (8, 9) becomes parallel to and approaches the central fin characterized in that when said other auxiliary fin (8,9) becomes parallel to and approaches the central fin, these fins (7, 8, 9) function as one large fin, and the cam link mechanism is constituted so that a plurality of cam grooves (11a, 11b, 11c) are provided in a cam plate axially supported rotatably, and in the cam grooves (11a, 11b, 11c), an engagement pin of a link member joined to the pivot of the central fin is engaged and engagement pins (13a, 12a) of link members (13, 12) joined to the pivots (8a, 9a) of the pair of auxiliary fins (8, 9) are engaged.
Damping device for reducing pressure oscillations in a combustion system, at least comprising a portion provided with a first, outer wall, a second, inner wall, an intermediate plate interposed between the first wall and the second wall, wherein this intermediate plate forms a spacer grid to define at least one chamber between said first wall and said second wall, first passages connecting each of said at least one chamber to the inner of the combustion system, and second passages connecting each of said at least one chamber to the outer of the combustion system, wherein the second passages open at the same side of said chambers as the first passages, the second passages have a section extending parallel to the inner wall, wherein at least this parallel section of the second passages is equipped with heat transfer enhancing means (20, 21), characterized in that the section of the second passages extending parallel to the inner wall has a rectangular cross section with a height, i.e. the distance between a lower boundary surface and an upper boundary surface, and a width, i.e. the distance between opposed side walls (23, 24), wherein the height is in the range from 0,3mm to 3mm and the ratio of width to height is in the range from 1,5 to 25 and wherein the heat transfer enhancing means (20, 21) in at least the section of the second passages extending parallel to the inner wall are roughness features, connected to the surface inside the second passages.
An apparatus for forming an injection molded article, comprising: a mold having an exterior housing and an interior cavity therein; a first pumping system to deliver a first polymer material to the mold, the first polymer material comprising a thermoplastic polymer or a thermoset polymer; a second pumping system to deliver a silicone formulation to the mold, the silicone formulation having a viscosity of about 50 to about 2,000 Pa•s (50,000 to 2,000,000 centipoise); wherein the first polymer material and the silicone formulation flow into the cavity of the mold; and a source of radiation energy, wherein the radiation energy substantially cures the silicone formulation within the cavity of the mold to form the injection molded article. a mold having an exterior housing and an interior cavity therein; a first pumping system to deliver a first polymer material to the mold, the first polymer material comprising a thermoplastic polymer or a thermoset polymer; a second pumping system to deliver a silicone formulation to the mold, the silicone formulation having a viscosity of about 50 to about 2,000 Pa•s (50,000 to 2,000,000 centipoise); wherein the first polymer material and the silicone formulation flow into the cavity of the mold; and a source of radiation energy, wherein the radiation energy substantially cures the silicone formulation within the cavity of the mold to form the injection molded article.
An apparatus for determining the spatial position of pick-up elements of a container, said apparatus comprising: a moving sensor which is configured to acquire a respective set (33, 35) of spatial coordinates of points for a plurality of mutually different sensor positions, wherein the points lie in a spatial region which comprises the container; and an evaluation unit which is configured: to combine the respective sets (33, 35) of spatial coordinates into a fused totality of coordinates, to determine a respective spatial position of the pick-up elements of the container based on the fused totality of the coordinates of the points. a moving sensor which is configured to acquire a respective set (33, 35) of spatial coordinates of points for a plurality of mutually different sensor positions, wherein the points lie in a spatial region which comprises the container; and an evaluation unit which is configured: to combine the respective sets (33, 35) of spatial coordinates into a fused totality of coordinates, to determine a respective spatial position of the pick-up elements of the container based on the fused totality of the coordinates of the points. to combine the respective sets (33, 35) of spatial coordinates into a fused totality of coordinates, to determine a respective spatial position of the pick-up elements of the container based on the fused totality of the coordinates of the points.
A method of updating received digital assets transactions in an isolated device, comprising: using at least one processor of an isolated device having no network connectivity for: receiving at least one limited length string indicating a value of digital assets transferred in at least one transaction from at least one other device to an account associated with the isolated device, the at least one transaction is recorded in a blockchain maintained by a plurality of networked computing nodes with a respective identifier computed based on at least one input value of digital assets included in the at least one transaction which corresponds to a respective output value of at least one previous transaction stored in a predefined order in a depository allocated for the isolated device in the at least one other device, the isolated device is informed of each previous transaction stored in the depository; inferring the respective identifier of the at least one transaction according to the at least one output value of at least one previous transaction identified based on the transferred value according to the predefined order; and updating the isolated device with a balance of digital assets of the associated account according to the at least one transaction including the respective identifier. receiving at least one limited length string indicating a value of digital assets transferred in at least one transaction from at least one other device to an account associated with the isolated device, the at least one transaction is recorded in a blockchain maintained by a plurality of networked computing nodes with a respective identifier computed based on at least one input value of digital assets included in the at least one transaction which corresponds to a respective output value of at least one previous transaction stored in a predefined order in a depository allocated for the isolated device in the at least one other device, the isolated device is informed of each previous transaction stored in the depository; inferring the respective identifier of the at least one transaction according to the at least one output value of at least one previous transaction identified based on the transferred value according to the predefined order; and updating the isolated device with a balance of digital assets of the associated account according to the at least one transaction including the respective identifier.
A method for controlling a vehicle having an autonomous operation mode, the method comprising: controlling, by a processor, operation of the vehicle based on a first control strategy; identifying a sensor field based on a field of view of one or more sensors (310, 311, 320. 321, 322, 323, 330, 331) of the vehicle; receiving sensor data from selected ones of the one or more sensors; detecting an object and a location of the object in the sensor field based on the received sensor data; identifying a change in sensor perception of the one or more sensors based on the location of the object, the change in the sensor perception including a diminished ability to detect objects within the sensor field; determining a second control strategy based on the change; and controlling, by the processor, the operation of the vehicle based on the second control strategy. controlling, by a processor, operation of the vehicle based on a first control strategy; identifying a sensor field based on a field of view of one or more sensors (310, 311, 320. 321, 322, 323, 330, 331) of the vehicle; receiving sensor data from selected ones of the one or more sensors; detecting an object and a location of the object in the sensor field based on the received sensor data; identifying a change in sensor perception of the one or more sensors based on the location of the object, the change in the sensor perception including a diminished ability to detect objects within the sensor field; determining a second control strategy based on the change; and controlling, by the processor, the operation of the vehicle based on the second control strategy.
Composition comprising a compound A of formula wherein M1 is independently selected from H, Li, Na, K, NH 4 +, R a a N +, R a (4-m) NH m, in which m is 1, 2, or 3 and Ra is independently selected from alkyl groups having 1-4 carbon atoms and hydroxyethyl groups; a compound B of formula wherein M2 is independently selected from H, Li, Na, K, NH 4 +, R a 4 N +, R a (4-m) NH m, in which m is 1, 2, or 3 and Ra is an alkyl group having 1-4 carbon atoms and hydroxyethyl groups; and water, wherein the weight ratio compound A: compound B is in the range of 0.10 to 3.00, and the total weight of compound A and compound B relative to the total weight of the composition is 0.10 to 50 %. wherein M1 is independently selected from H, Li, Na, K, NH 4 +, R a a N +, R a (4-m) NH m, in which m is 1, 2, or 3 and Ra is independently selected from alkyl groups having 1-4 carbon atoms and hydroxyethyl groups; a compound B of formula wherein M2 is independently selected from H, Li, Na, K, NH 4 +, R a 4 N +, R a (4-m) NH m, in which m is 1, 2, or 3 and Ra is an alkyl group having 1-4 carbon atoms and hydroxyethyl groups; and water, wherein the weight ratio compound A: compound B is in the range of 0.10 to 3.00, and the total weight of compound A and compound B relative to the total weight of the composition is 0.10 to 50 %. wherein M2 is independently selected from H, Li, Na, K, NH 4 +, R a 4 N +, R a (4-m) NH m, in which m is 1, 2, or 3 and Ra is an alkyl group having 1-4 carbon atoms and hydroxyethyl groups; and water, wherein the weight ratio compound A: compound B is in the range of 0.10 to 3.00, and the total weight of compound A and compound B relative to the total weight of the composition is 0.10 to 50 %.
Support for a work of art comprising a base element for fixing the support to an interior wall of a shipping container, a clamping element for clamping the work of art, wherein the base element and the clamping element are fixed to each other, wherein the base element has a cross-section in the shape of a L and comprises of a base wall part and an upright wall part, and wherein the clamping element has a cross-section in the shape of a L and comprises of a base wall part and an upright wall part, characterized in that the base wall part of the base element and the base wall part of the clamping element are fixed to each other by one or more wire rope isolators, in that the upright wall part of the base element and the upright wall part of the clamping element are fixed to each other by one or more wire rope isolators, and in that the clamping element is provided with a clamp which may be fixed to the upright wall part of the clamping element at varying distances from the base wall part of the clamping element. wherein the base element and the clamping element are fixed to each other, wherein the base element has a cross-section in the shape of a L and comprises of a base wall part and an upright wall part, and wherein the clamping element has a cross-section in the shape of a L and comprises of a base wall part and an upright wall part, characterized in that the base wall part of the base element and the base wall part of the clamping element are fixed to each other by one or more wire rope isolators, in that the upright wall part of the base element and the upright wall part of the clamping element are fixed to each other by one or more wire rope isolators, and in that the clamping element is provided with a clamp which may be fixed to the upright wall part of the clamping element at varying distances from the base wall part of the clamping element.
An Vehicle to Everything, V2X, message communication method performed by a terminal supporting a V2X service communications function, comprising: sending, by the terminal, a quality of service, QoS, request message to a network device to request QoS information of the terminal, wherein the QoS request message carries identification information of the terminal; receiving, by the terminal, the QoS information of the terminal from the network device; characterized in that the QoS information comprises a correspondence between message identifiers of V2X messages supported by the terminal and QoS parameters, each message identifier corresponds to a QoS parameter, and each message identifier is used to identify a V2X message sent by the terminal and includes at least one of a message type or a message flow template type; the method further comprises: obtaining, by the terminal based on the QoS information, a QoS parameter corresponding to a message identifier of a to-be-sent V2X message; obtaining, by the terminal based on the obtained QoS parameter, a radio resource used to send the to-be-sent V2X message; and sending, by the terminal, the to-be-sent V2X message by using the obtained radio resource to another terminal to implement a V2X service. sending, by the terminal, a quality of service, QoS, request message to a network device to request QoS information of the terminal, wherein the QoS request message carries identification information of the terminal; receiving, by the terminal, the QoS information of the terminal from the network device; characterized in that the QoS information comprises a correspondence between message identifiers of V2X messages supported by the terminal and QoS parameters, each message identifier corresponds to a QoS parameter, and each message identifier is used to identify a V2X message sent by the terminal and includes at least one of a message type or a message flow template type; the method further comprises: obtaining, by the terminal based on the QoS information, a QoS parameter corresponding to a message identifier of a to-be-sent V2X message; obtaining, by the terminal based on the obtained QoS parameter, a radio resource used to send the to-be-sent V2X message; and sending, by the terminal, the to-be-sent V2X message by using the obtained radio resource to another terminal to implement a V2X service. obtaining, by the terminal based on the QoS information, a QoS parameter corresponding to a message identifier of a to-be-sent V2X message; obtaining, by the terminal based on the obtained QoS parameter, a radio resource used to send the to-be-sent V2X message; and sending, by the terminal, the to-be-sent V2X message by using the obtained radio resource to another terminal to implement a V2X service.
An apparatus for forming an annular part from a preform, the apparatus comprising a punch having a forming end with an external surface shaped to correspond to the shape of the annular part to be formed, a clamping means (3, 5) for clamping a large diameter end of the preform, in use, and a gripping means (6, 7) for adjustably gripping a small diameter end of the preform and characterized in that the apparatus comprises actuation means arranged to facilitate relative coaxial movement only between the punch, the clamping means (3, 5) and the gripping means (6, 7); the gripping means (6, 7) comprises a preform holder formed for operable engagement with a die and wherein the preform holder has an external surface having a generally conical or frusto-conical shape; the die having an external surface designed to match the internal surface of the punch with a slight clearance for the preform.