mhurhangee/ep-ind-claims huggingface dataset:
A method for fall back procedures by a network entity (306, 308, 310, 312) in a communications environment, comprising: forwarding to a first mobile device an invitation for a session, the invitation being from a second mobile device and having packet switched bearers for media; holding the session as a function of a rejection to the invitation by the first mobile device based on a received Idle mode Signaling Reduction indication; receiving a circuit switched call (338, 340, 342) from the first mobile device; correlating the circuit switched call with the held session; and establishing a communication between the first mobile device and the second mobile device over circuit switched domain bearers and Internet Protocol Multimedia Subsystem bearers. forwarding to a first mobile device an invitation for a session, the invitation being from a second mobile device and having packet switched bearers for media; holding the session as a function of a rejection to the invitation by the first mobile device based on a received Idle mode Signaling Reduction indication; receiving a circuit switched call (338, 340, 342) from the first mobile device; correlating the circuit switched call with the held session; and establishing a communication between the first mobile device and the second mobile device over circuit switched domain bearers and Internet Protocol Multimedia Subsystem bearers.
A computer-implemented method for calculating a reflectogram associated with a transmission line in which a reference signal is injected beforehand, a reflectogram being defined by a calculation, at multiple successive times, of the intercorrelation between the injected reference signal and a measurement of the reference signal after propagation thereof in the transmission line, calculated on a maximum number of samples equal to K, said method comprising the following iteratively executed steps: - acquiring, at a current time i+dK, a measurement of said signal after propagation thereof in the transmission line, said measurement comprising a number dK of samples, - determining a reflectogram R i+dK at the current time i+dK, from a previous reflectogram R i calculated at a previous time i, by performing the following operations for each value of the reflectogram: • subtracting, from the previous reflectogram R i, at least one product of correlation between a number dK of samples of the signal that are measured at the previous time i and a number dK of corresponding samples of the reference signal that are injected into the transmission line at an injection time i', • adding, to the previous reflectogram R i, at least one product of correlation between a number dK of samples measured at the current time i+dK and a number dK of corresponding samples of the reference signal that are injected into the transmission line at an injection time i'+dK, • dK being strictly less than K. - acquiring, at a current time i+dK, a measurement of said signal after propagation thereof in the transmission line, said measurement comprising a number dK of samples, - determining a reflectogram R i+dK at the current time i+dK, from a previous reflectogram R i calculated at a previous time i, by performing the following operations for each value of the reflectogram: • subtracting, from the previous reflectogram R i, at least one product of correlation between a number dK of samples of the signal that are measured at the previous time i and a number dK of corresponding samples of the reference signal that are injected into the transmission line at an injection time i', • adding, to the previous reflectogram R i, at least one product of correlation between a number dK of samples measured at the current time i+dK and a number dK of corresponding samples of the reference signal that are injected into the transmission line at an injection time i'+dK, • dK being strictly less than K. • subtracting, from the previous reflectogram R i, at least one product of correlation between a number dK of samples of the signal that are measured at the previous time i and a number dK of corresponding samples of the reference signal that are injected into the transmission line at an injection time i', • adding, to the previous reflectogram R i, at least one product of correlation between a number dK of samples measured at the current time i+dK and a number dK of corresponding samples of the reference signal that are injected into the transmission line at an injection time i'+dK, • dK being strictly less than K.
An arc welding control method of controlling a welding current in short-circuit arc welding of feeding a welding wire toward a base metal and alternating a short-circuit state and an arc state, the arc welding control method characterized in that it comprises: executing, in the short-circuit state, a first increase in the welding current with a first slope, a first decrease in the welding current to a first bottom value after executing the first increase, a second increase in the welding current with a second slope after executing the first decrease, and a second decrease in the welding current to a second bottom value that is smaller than the first bottom value after executing the second increase to shift a state to the arc state.
A thread former or drill, comprising a shank body, which has a chuck portion at its one end and a retaining portion at its other end, further comprising a profiled body formed separately from the shank body with thread forming edges or thread cutting edges for forming or cutting a thread on a work piece, wherein the profiled body has a connecting portion on its one end, by which the profiled body can be fastened on the retaining portion of the shank body, wherein when the profiled body is fastened on the shank body, a coolant uptake line is formed within the profiled body, aligned with a coolant supply line that is formed within the shank body, the coolant uptake line being connected to several coolant distribution lines (44, 44', 44", 44''') formed within the profiled body, wherein the coolant distribution lines (44, 44', 44", 44''') each have an outlet opening in the region of the thread forming edges or thread cutting edges, characterised in that the profiled body and the shank body were each formed layer by layer in a 3D-printing process, wherein when the profiled body is fastened on the shank body, the openings (36, 38) of the coolant supply line and the coolant uptake line facing each other are off-axis with respect to the longitudinal axes of shank body and profiled body, and wherein the coolant supply line formed in the shank body has a course which is curved once or several times.
An electro-optical element capable of exploiting the Pockels effect, comprising: a core layer made of an electro-optical material; a clad structure (5a, 5b, 6a, 6b) disposed on each of opposite sides of the core layer and configured to form an optical waveguide together with the core layer; and a pair of electrode layers (7a, 7b), one of which being disposed on one outer side of the clad structure and another being disposed on the opposite outer side of the clad structure, the clad structure including on each side an inner, first clad layer (5a, 5b) and an outer, second clad layer (6a, 6b), distinct from the first clad layer; characterized by the second clad layer (6a, 6b) having a dielectric permittivity larger than that of the first clad layer, and the second clad layer (6a, 6b) having a thickness thicker than that of the first clad layer. a core layer made of an electro-optical material; a clad structure (5a, 5b, 6a, 6b) disposed on each of opposite sides of the core layer and configured to form an optical waveguide together with the core layer; and a pair of electrode layers (7a, 7b), one of which being disposed on one outer side of the clad structure and another being disposed on the opposite outer side of the clad structure,
A securing device comprising a pad retainer bracket and a retainer for securing at least one signal cable to a pad retainer bracket of a disc brake, having a retainer arranged on the pad retainer bracket, the signal cable running through the retainer, the retainer being arranged on one side and in a lateral region of the pad retainer bracket and being retained on it in a form and/or frictional fit, the signal cable running between the retainer and an associated side of the pad retainer bracket, the retainer running substantially parallel to a longitudinal direction of the pad retainer bracket and having regions with a U- or C-shaped cross section, thereby forming an upper side leg and a lower side leg, which runs parallel to and at a distance from the upper side leg, both abutting the pad retainer bracket, the pad retainer bracket having on at least one side associated with the upper side leg or the lower side leg a web that is encompassed by a clamping leg of the upper and/or lower side leg (12, 15), characterised in that the clamping leg lies in a furrow of the pad retainer bracket and the pad retainer bracket has a pin that engages in a hole in the upper or lower side leg (12, 15).
Acetylsalicylic acid or a salt thereof, at a concentration of between 200 and 4800 μM, for use thereof in preventing and/or treating diabetic wounds the administration of the acetylsalicylic acid or a salt thereof at said concentration being carried out in topical form.
A manufacturing method, comprising: providing a powdered material; providing an energy source that produces an energy beam; directing the energy beam from the energy source toward an energy beam patterning unit to form a two-dimensional patterned energy beam; directing the two-dimensional patterned energy beam against the powdered material to form a part (1330, 1400) having a manipulation point that enables repositioning or maneuvering of the part (1330, 1400), wherein the manipulation point is temporary or permanent additively manufactured; and moving the part (1330, 1400) using a manipulator device to engage the manipulation point with three-dimensional, 3D, localization of the part (1330, 1400) by using one or more sensors with aid of marking optical guides or indicia additively formed or mechanically or laser inscribed on the part (1330, 1400); characterized in that moving the part (1330, 1400) consists in reorienting the part (1330, 1400) using a manipulation device before adding more powdered material, wherein the manipulation device is a robot arm, and wherein the manipulation point is a structure (1402. 1404, 1406. 1408, 1414) projecting from the part (1330. 1400). providing a powdered material; providing an energy source that produces an energy beam; directing the energy beam from the energy source toward an energy beam patterning unit to form a two-dimensional patterned energy beam; directing the two-dimensional patterned energy beam against the powdered material to form a part (1330, 1400) having a manipulation point that enables repositioning or maneuvering of the part (1330, 1400), wherein the manipulation point is temporary or permanent additively manufactured; and moving the part (1330, 1400) using a manipulator device to engage the manipulation point with three-dimensional, 3D, localization of the part (1330, 1400) by using one or more sensors with aid of marking optical guides or indicia additively formed or mechanically or laser inscribed on the part (1330, 1400); characterized in that moving the part (1330, 1400) consists in reorienting the part (1330, 1400) using a manipulation device before adding more powdered material, wherein the manipulation device is a robot arm, and wherein the manipulation point is a structure (1402. 1404, 1406. 1408, 1414) projecting from the part (1330. 1400).
An apparatus for transmitting or receiving wireless power, the apparatus comprising: a plurality of substantially co-planar coils; wherein the plurality of coils (702, 703; 904, 905) comprise three or more lengths of conducting material (701, 704, 705; 901, 902, 903), each length of conducting material being electrically connectable at each end to a power source or battery; wherein the plurality of coils are wound such that electric current in the lengths of conducting material flows in the same direction in adjacent portions of adjacent coils of said coils, and wherein two or more of the coils comprise the same at least one of the lengths of conducting material. a plurality of substantially co-planar coils; wherein the plurality of coils (702, 703; 904, 905) comprise three or more lengths of conducting material (701, 704, 705; 901, 902, 903), each length of conducting material being electrically connectable at each end to a power source or battery; wherein the plurality of coils are wound such that electric current in the lengths of conducting material flows in the same direction in adjacent portions of adjacent coils of said coils, and wherein two or more of the coils comprise the same at least one of the lengths of conducting material.
An integrity protection method for a sidelink communication, comprising: obtaining a first BEARER parameter value based on a logical channel identity (LCID) corresponding to data transmitted in the sidelink communication, wherein a bit length of the LCID corresponding to the transmitted data is greater than a bit length of the first BEARER parameter value; and based on the first BEARER parameter value, calculating a Message Authentication Code-Integrity (MAC-I) or an eXpected Message Authentication Code-Integrity (XMAC-I) for the sidelink communication; wherein the first BEARER parameter value is obtained in the following manner: obtaining a part of bit values of the LCID corresponding to the transmitted data to generate the first BEARER parameter value. obtaining a first BEARER parameter value based on a logical channel identity (LCID) corresponding to data transmitted in the sidelink communication, wherein a bit length of the LCID corresponding to the transmitted data is greater than a bit length of the first BEARER parameter value; and based on the first BEARER parameter value, calculating a Message Authentication Code-Integrity (MAC-I) or an eXpected Message Authentication Code-Integrity (XMAC-I) for the sidelink communication; wherein the first BEARER parameter value is obtained in the following manner: obtaining a part of bit values of the LCID corresponding to the transmitted data to generate the first BEARER parameter value.
A passenger support assembly for a passenger seat, the assembly comprising: an expandable inner frame (220, 222) comprising attachment elements configured to attach the passenger support assembly with a seat frame and an expansion mechanism configured to allow the expandable inner frame (220, 222) to change in width; an outer frame comprising two side frame elements connected with the expandable inner frame (220, 222) and extending beyond the expandable inner frame (220, 222), the outer frame configured to change in width in response to a change in width of the expandable inner frame (220, 222); and a diaphragm held in tension by the two side frame elements of the outer frame to define a seating surface, characterized in that the diaphragm further comprises first and second metal coils connected therewith at first and second ends of the diaphragm; and the diaphragm is connected with the first and second side frame elements by insertion of the first and second metal coils within slots in the first and second side frame elements, respectively. an expandable inner frame (220, 222) comprising attachment elements configured to attach the passenger support assembly with a seat frame and an expansion mechanism configured to allow the expandable inner frame (220, 222) to change in width; an outer frame comprising two side frame elements connected with the expandable inner frame (220, 222) and extending beyond the expandable inner frame (220, 222), the outer frame configured to change in width in response to a change in width of the expandable inner frame (220, 222); and a diaphragm held in tension by the two side frame elements of the outer frame to define a seating surface, characterized in that the diaphragm further comprises first and second metal coils connected therewith at first and second ends of the diaphragm; and the diaphragm is connected with the first and second side frame elements by insertion of the first and second metal coils within slots in the first and second side frame elements, respectively.
A method for digital communications, the method comprising: receiving, by a user equipment, UE, first configuration information for an initial uplink message transmitted by the UE to a second communications controller, the first configuration information including a first uplink resource allocation indicator indicating a first uplink resource and a transmit power indicator indicating a transmit power level, the first configuration information received from a first communications controller; and transmitting, by the UE, the initial uplink message in accordance with the first configuration information, further comprising the step of: participating, by the UE, in a determination of the transmit power indicator; and characterized in: receiving, by the UE, second configuration information for an uplink measurement sequence transmission; and transmitting, by the UE, to the second communication controller, a timing sequence in accordance with the second configuration information for the uplink measurement sequence transmission. receiving, by a user equipment, UE, first configuration information for an initial uplink message transmitted by the UE to a second communications controller, the first configuration information including a first uplink resource allocation indicator indicating a first uplink resource and a transmit power indicator indicating a transmit power level, the first configuration information received from a first communications controller; and transmitting, by the UE, the initial uplink message in accordance with the first configuration information, further comprising the step of: participating, by the UE, in a determination of the transmit power indicator; and participating, by the UE, in a determination of the transmit power indicator; and receiving, by the UE, second configuration information for an uplink measurement sequence transmission; and transmitting, by the UE, to the second communication controller, a timing sequence in accordance with the second configuration information for the uplink measurement sequence transmission.
A system for adjusting at least two sets of shutoff elements of an air intake of a motor compartment of a motor vehicle, comprising at least two adjustment units (2, 3), wherein each adjustment unit comprises a drive unit comprising an electric motor and a drive train for adjusting a set of shutoff elements, characterized in that one adjustment unit is a primary adjustment unit and a further adjustment unit is a secondary adjustment unit, wherein the primary adjustment unit is arranged for primary connection with a central control unit and is arranged for secondary connection with the secondary adjustment unit.
A pharmaceutical composition comprising a pharmaceutically acceptable carrier, an immunogenic quantity of an antigen, and an adjuvant comprising an IAP inhibitor, wherein the antigen comprises an antigen present in a cancer cell; a cancer cell; a cancer cell fragment; a tumor antigen; α-galcer; anti-CD3; anti-CD28; anti-IgM; anti-CD40; a pathogen, an attenuated pathogen, or a portion thereof; and the IAP inhibitor is a compound of formula II or a pharmaceutically acceptable salt thereof, wherein R 1 ' is H; R 2 ' is C 1 -C 4 alkyl; R 3 ' is C 1 -C 4 alkyl; R 4 ' is C 3 -C 10 cycloalkyl; R 5 ' is H or C 1 -C 10 alkyl; U is R 17 is Ar 1 -D-Ar 2; D is CO, O, or N(Rx); Rx is H or C 1-7 alkyl; and Ar 1 and Ar 2 are substituted or unsubstituted aryl or het. R 1 ' is H; R 2 ' is C 1 -C 4 alkyl; R 3 ' is C 1 -C 4 alkyl; R 4 ' is C 3 -C 10 cycloalkyl; R 5 ' is H or C 1 -C 10 alkyl; U is R 17 is Ar 1 -D-Ar 2; D is CO, O, or N(Rx); Rx is H or C 1-7 alkyl; and Ar 1 and Ar 2 are substituted or unsubstituted aryl or het.
A method, comprising: detecting a trigger condition at a particular location in a primary directed acyclic graph, DAG, in a computer network comprising a plurality of nodes, wherein the particular location comprises an identifiable set of nodes (22, 23, 24, 33, 34, 44, 45) of the plurality of nodes within the primary DAG; determining a particular node in the primary DAG at the particular location to act as a remote stitched DAG, RS-DAG, root for an RS-DAG at the particular location; and instructing the RS-DAG root to initiate the RS-DAG, the instructing indicating one or more properties for the RS-DAG that are based on the trigger condition and that are different from properties of the primary DAG; wherein the RS-DAG is a DAG comprising the set of nodes of the particular location within the primary DAG. detecting a trigger condition at a particular location in a primary directed acyclic graph, DAG, in a computer network comprising a plurality of nodes, wherein the particular location comprises an identifiable set of nodes (22, 23, 24, 33, 34, 44, 45) of the plurality of nodes within the primary DAG; determining a particular node in the primary DAG at the particular location to act as a remote stitched DAG, RS-DAG, root for an RS-DAG at the particular location; and instructing the RS-DAG root to initiate the RS-DAG, the instructing indicating one or more properties for the RS-DAG that are based on the trigger condition and that are different from properties of the primary DAG; wherein the RS-DAG is a DAG comprising the set of nodes of the particular location within the primary DAG.
A solar powered aircraft comprising: an electric-powered engine propulsion system; one or more first wings attached parallel to the lateral axis of the aircraft, wherein the first wings are configured to produce lift in a first direction when the aircraft is moving in a second direction that is substantially perpendicular to the first direction, wherein the first wings are configured to also produce a centripetal force when the aircraft is banking while moving in the second direction; one or more second wings affixed and oriented substantially perpendicular to the first wings, a solar power system comprising a plurality of solar cells affixed to one or more wings of the aircraft, wherein the solar power system is configured to capture sunlight, convert the captured sunlight to electricity, and provide the electricity to the engine propulsion system, characterized in that the second wings are rotatable with respect to the vertical axis of the aircraft, and wherein the second wings are configured to produce a counter force in a third direction that is substantially perpendicular to both the first direction and the second direction, wherein the counter force reduces the centripetal force when the aircraft is banking, wherein a rotation of the second wings produces lift in a desired direction while the aircraft is in motion. an electric-powered engine propulsion system; one or more first wings attached parallel to the lateral axis of the aircraft, wherein the first wings are configured to produce lift in a first direction when the aircraft is moving in a second direction that is substantially perpendicular to the first direction, wherein the first wings are configured to also produce a centripetal force when the aircraft is banking while moving in the second direction; one or more second wings affixed and oriented substantially perpendicular to the first wings, a solar power system comprising a plurality of solar cells affixed to one or more wings of the aircraft, wherein the solar power system is configured to capture sunlight, convert the captured sunlight to electricity, and provide the electricity to the engine propulsion system, characterized in that the second wings are rotatable with respect to the vertical axis of the aircraft, and wherein the second wings are configured to produce a counter force in a third direction that is substantially perpendicular to both the first direction and the second direction, wherein the counter force reduces the centripetal force when the aircraft is banking, wherein a rotation of the second wings produces lift in a desired direction while the aircraft is in motion.