mhurhangee/ep-ind-claims huggingface dataset:
A voltage monitor system comprising: a voltage rail; a voltage monitor operatively connected to the voltage rail to monitor voltage of the voltage rail with at least one input connection; a self-test module operatively connected to the voltage rail to perturb voltage at the at least one input connection of the voltage monitor for testing the voltage monitor; and characterised by: a logic component operatively connected to a voltage input of the self-test module and operatively connected to at least one output of the voltage monitor, wherein the logic component is configured to change voltage of the voltage input of the self-test module and monitor voltage of the at least one output of the voltage monitor to determine test response of the voltage monitor to the change in voltage of the voltage input of the self-test module and wherein the self-test module includes a capacitor connected in series between the voltage rail and the voltage input of the self-test module to perturb voltage at the at least one input connection of the voltage monitor in response to a change in voltage of the voltage input of the self-test module. a voltage rail; a voltage monitor operatively connected to the voltage rail to monitor voltage of the voltage rail with at least one input connection; a self-test module operatively connected to the voltage rail to perturb voltage at the at least one input connection of the voltage monitor for testing the voltage monitor; and characterised by: a logic component operatively connected to a voltage input of the self-test module and operatively connected to at least one output of the voltage monitor, wherein the logic component is configured to change voltage of the voltage input of the self-test module and monitor voltage of the at least one output of the voltage monitor to determine test response of the voltage monitor to the change in voltage of the voltage input of the self-test module and wherein the self-test module includes a capacitor connected in series between the voltage rail and the voltage input of the self-test module to perturb voltage at the at least one input connection of the voltage monitor in response to a change in voltage of the voltage input of the self-test module.
A method for manufacturing a combustor front panel by an additive manufacturing process, the additive manufacturing process comprising consecutively adding material to the combustion front panel along a buildup direction starting from a base side in producing the base side transverse to the buildup direction by the additive manufacturing process and adding material starting at the base side in consecutive steps, the method comprising manufacturing the element such as to comprise a front face extending from the base side and into the buildup direction, the method further comprising manufacturing at least one bump structure (67, 69) on said front face by means of the additive manufacturing process, wherein a delimitation of said bump structure comprises at least one reclining ledge (71, 72) and at least one overhang ledge (73, 74), the method further comprising manufacturing all overhang ledges (73, 74) to form an angle (a, d) with the buildup direction being smaller than or equal to 50 degrees, characterized in that it comprises manufacturing at least one acoustic damper defined by a concave bump structure as a depression on the front face that does not penetrate the combustor front panel from the front face to an opposite second face and manufacturing a back wall delimiting the concave bump structure.
A method of conformally coating a biomaterial with a coating material, comprising the steps of: a) injecting a water phase within a coaxial oil phase in a coating device that allows for a transition from dripping to jetting and flow elongation of the water phase within the oil phase; b) adding the biomaterial and the coating material to the water phase, wherein polymerization of the coating material occurs downstream of breakup of the water phase jet into particles, resulting in the conformal coating of the biomaterial with the coating material; c) optionally collecting the outflow of the coating device; d) optionally purifying the conformally coated biomaterial and biomaterial-free coating material from the oil phase; and e) optionally separating the conformally coated biomaterial from the biomaterial-free coating material; wherein the biomaterial comprises cells or cell clusters. a) injecting a water phase within a coaxial oil phase in a coating device that allows for a transition from dripping to jetting and flow elongation of the water phase within the oil phase; b) adding the biomaterial and the coating material to the water phase, wherein polymerization of the coating material occurs downstream of breakup of the water phase jet into particles, resulting in the conformal coating of the biomaterial with the coating material; c) optionally collecting the outflow of the coating device; d) optionally purifying the conformally coated biomaterial and biomaterial-free coating material from the oil phase; and e) optionally separating the conformally coated biomaterial from the biomaterial-free coating material;
A method of covalently linking hyaluronan and chitosan, comprising the steps of: (a) providing a solution of hyaluronan with a pH of 4.0 to 4.3; (b) adding a solution of chitosan such that the resultant mixed solution has a pH of 7.2 to 7.8; and (c) adding a water soluble carbodiimide. (a) providing a solution of hyaluronan with a pH of 4.0 to 4.3; (b) adding a solution of chitosan such that the resultant mixed solution has a pH of 7.2 to 7.8; and (c) adding a water soluble carbodiimide.
A silicon glycan having the formula: where each A is an independently selected saccharide moiety, wherein the total number of saccharide moieties is between 10 and 10,000; each W is an independently selected beta-amino alcohol moiety; each Y is an independently selected organosilicon moiety; each R is independently selected from substituted or unsubstituted hydrocarbyl groups, ether moieties, amine moieties, and H; each R 1 is independently selected from substituted or unsubstituted hydrocarbyl groups and H; each Z is an independently selected ether moiety; each subscript o is independently 0 or 1; subscripts x and y are each independently from ≥0 to <1; subscript z is from >0 to 1, with the proviso that x+y+z =1; and moieties indicated by subscripts x, y, and z may be in randomized or block form in the silicon glycan.
A method comprising: receiving, by a processing device, a service request comprising a first request header identifying: a first user and a first role, wherein a first set of capabilities associated with the first user are a subset of a second set of capabilities associated with the first role, and a second user and a second role, wherein the second role corresponds to a selected capacity in which the second user is acting; sending, by the processing device to an external device, an authorization request comprising a second request header identifying: the first user and the first role, and the second user and the second role; receiving, by the processing device, an authorization or a denial to perform one or more aspects of the service request wherein the service request may only be granted for a specific set of defined capabilities for both the first user and the first role; and receiving, by the processing device, an authorization or a denial to perform one or more aspects of the service request wherein the service request may only be granted for a specific set of defined capabilities for a combination of the first user and the second user and the first role, and the second role, wherein the second user is acting on behalf of the first user. receiving, by a processing device, a service request comprising a first request header identifying: a first user and a first role, wherein a first set of capabilities associated with the first user are a subset of a second set of capabilities associated with the first role, and a second user and a second role, wherein the second role corresponds to a selected capacity in which the second user is acting; a first user and a first role, wherein a first set of capabilities associated with the first user are a subset of a second set of capabilities associated with the first role, and a second user and a second role, wherein the second role corresponds to a selected capacity in which the second user is acting; sending, by the processing device to an external device, an authorization request comprising a second request header identifying: the first user and the first role, and the second user and the second role; the first user and the first role, and the second user and the second role; receiving, by the processing device, an authorization or a denial to perform one or more aspects of the service request wherein the service request may only be granted for a specific set of defined capabilities for both the first user and the first role; and receiving, by the processing device, an authorization or a denial to perform one or more aspects of the service request wherein the service request may only be granted for a specific set of defined capabilities for a combination of the first user and the second user and the first role, and the second role, wherein the second user is acting on behalf of the first user.
1. A vehicle side body structure comprising: a pillar member including an upper member and a lower member that is joined to the upper member and has a rigidity lower than the upper member, wherein the pillar member is configured to partition a side part opening of a vehicle body into a front part and a rear part; a door disposed adjacently to the pillar member; an impact bar provided in the door; and a reinforcing member provided in the upper member, wherein a front end portion of the impact bar is configured to overlap at least partially with both the upper member and the lower member in vehicle side view in a state in which the door is closed, and wherein the front end portion of the impact bar is configured to cover a region of the upper member in which the reinforcing member is present, a region of the upper member in which the reinforcing member is not present, and the lower member in vehicle side view. 1. A vehicle side body structure comprising: a pillar member including an upper member and a lower member that is joined to the upper member and has a rigidity lower than the upper member, wherein the pillar member is configured to partition a side part opening of a vehicle body into a front part and a rear part; a door disposed adjacently to the pillar member; an impact bar provided in the door; and a reinforcing member provided in the upper member, wherein a front end portion of the impact bar is configured to overlap at least partially with both the upper member and the lower member in vehicle side view in a state in which the door is closed, and wherein the front end portion of the impact bar is configured to cover a region of the upper member in which the reinforcing member is present, a region of the upper member in which the reinforcing member is not present, and the lower member in vehicle side view. a pillar member including an upper member and a lower member that is joined to the upper member and has a rigidity lower than the upper member, wherein the pillar member is configured to partition a side part opening of a vehicle body into a front part and a rear part; a door disposed adjacently to the pillar member; an impact bar provided in the door; and a reinforcing member provided in the upper member, wherein a front end portion of the impact bar is configured to overlap at least partially with both the upper member and the lower member in vehicle side view in a state in which the door is closed, and wherein the front end portion of the impact bar is configured to cover a region of the upper member in which the reinforcing member is present, a region of the upper member in which the reinforcing member is not present, and the lower member in vehicle side view.
Housing of a stacked-plate heat exchanger, the said housing defining a volume intended to accept a plurality of stacked plates which plurality is configured for the circulation of a fluid that is to be cooled and of a coolant, the said housing defining an interface (53, 54) able to accept a header tank (75, 76, 80) for the fluid that is to be cooled and comprising a first part able to move in the direction in which the plates are stacked when the stacked plates are being brazed, and a second part, the said first and second parts being able to be assembled with one another when the plates are being brazed, characterized in that the second part has at least one flank (51, 52) defining the said interface (53, 54).
A method for controlling a movable object (102, 152) within an environment, the method comprising: determining, using at least one of a plurality of sensors (202, 204, 206, 302) carried by the movable object (102, 152), an initial location of the movable object (102, 152); generating a first signal to cause the movable object (102, 152) to navigate within the environment; receiving, using the at least one of the plurality of sensors (202, 204, 206, 302), sensing data pertaining to the environment; generating, based on the sensing data, an environmental map representative of at least a portion of the environment; and receiving, at the movable object (102, 152), an auto-return instruction to return to the initial location; characterized by in response to the auto-return instruction, generating a second signal to cause the movable object (102, 152) to return to the initial location based on the environmental map, wherein generating the second signal comprises: determining, using at least one of the plurality of sensors (202, 204, 206, 302), a current location of the movable object (102, 152); determining, by the movable object (102, 152) and based on the environmental map, a flight path from the current location to the initial location; and generating a signal to cause the movable object (102, 152) to automatically move along the flight path to return to the initial location. determining, using at least one of a plurality of sensors (202, 204, 206, 302) carried by the movable object (102, 152), an initial location of the movable object (102, 152); generating a first signal to cause the movable object (102, 152) to navigate within the environment; receiving, using the at least one of the plurality of sensors (202, 204, 206, 302), sensing data pertaining to the environment; generating, based on the sensing data, an environmental map representative of at least a portion of the environment; and receiving, at the movable object (102, 152), an auto-return instruction to return to the initial location; characterized by in response to the auto-return instruction, generating a second signal to cause the movable object (102, 152) to return to the initial location based on the environmental map, wherein generating the second signal comprises: determining, using at least one of the plurality of sensors (202, 204, 206, 302), a current location of the movable object (102, 152); determining, by the movable object (102, 152) and based on the environmental map, a flight path from the current location to the initial location; and generating a signal to cause the movable object (102, 152) to automatically move along the flight path to return to the initial location. determining, using at least one of the plurality of sensors (202, 204, 206, 302), a current location of the movable object (102, 152); determining, by the movable object (102, 152) and based on the environmental map, a flight path from the current location to the initial location; and generating a signal to cause the movable object (102, 152) to automatically move along the flight path to return to the initial location.
A method of making a negative electrode active material composition for a lead acid battery comprising a carbon black having a surface area of at least 250 m 2 /g and an organic molecule expander, wherein the ratio of the carbon black to expander ranges from 5:1 to 1:1, said method comprising: combining a lead oxide, the organic molecule expander, and BaSO 4 to form a dry powder mixture; adding a pre-wetted carbon black having a surface area of at least 250 m 2 /g to the dry powder mixture; combining sulfuric acid and water with the mixture containing the carbon black to form a slurry; forming a paste intermediate of the negative electrode active material composition; and drying the paste intermediate to form a solid negative electrode active material composition, wherein the negative electrode active material composition is a porous solid having a median pore size ranging from 0.8 μm to 4 μm. combining a lead oxide, the organic molecule expander, and BaSO 4 to form a dry powder mixture; adding a pre-wetted carbon black having a surface area of at least 250 m 2 /g to the dry powder mixture; combining sulfuric acid and water with the mixture containing the carbon black to form a slurry; forming a paste intermediate of the negative electrode active material composition; and drying the paste intermediate to form a solid negative electrode active material composition, wherein the negative electrode active material composition is a porous solid having a median pore size ranging from 0.8 μm to 4 μm.
An apparatus for wireless communication, comprising: means for determining (268, 270) a transmit power per channelization code based on an assumed uniform distribution of available transmit power across multiple transport blocks and across a designated number, M, of channelization codes; means for determining (268, 270) multiple channel quality indicator, CQI, indices for the multiple transport blocks based on the transmit power per channelization code; and means for sending (254, 280, 282) the multiple CQI indices to a Node B. means for determining (268, 270) a transmit power per channelization code based on an assumed uniform distribution of available transmit power across multiple transport blocks and across a designated number, M, of channelization codes; means for determining (268, 270) multiple channel quality indicator, CQI, indices for the multiple transport blocks based on the transmit power per channelization code; and means for sending (254, 280, 282) the multiple CQI indices to a Node B.
An escapement device of a clockwork movement with two active alternations between a pendulum plate and an escapement wheel comprising: - a first mobile element, - a second mobile element, - the escapement wheel subject to an essentially constant mechanical torque, and arranged for alternately transmitting mechanical energy to the first mobile element and to the second mobile element, - mechanical transmission means (24, 34) between the first mobile element and the second mobile element, - mechanical transmission and blocking means between the escapement wheel and the first mobile element, - mechanical transmission and blocking means between the escapement wheel and the second mobile element, - mechanical transmission means between the second mobile element and the plate of the pendulum, the blocking means of the first mobile element being formed with a blocking surface, arranged so that the force transmitted by the escapement wheel on this blocking surface substantially passes in the vicinity of the center of rotation of the first mobile element, the blocking means of the second mobile element being formed with a blocking surface, arranged so that the force transmitted by the escapement wheel on this blocking surface substantially passes in the vicinity of the center of rotation of the mobile element, the mechanical transmission means of the first mobile element, being formed with a driving surface arranged adjacent to the blocking surface and so that an external angle α2 ranging from the blocking surface of the first mobile element to the driving surface of the first mobile element is of the same sign as that of the angle of rotation of the escapement wheel, the mechanical transmission means of the second mobile element being formed with a driving surface arranged adjacent to the blocking surface and so that an external angle α3 ranging from the blocking surface of the second mobile element to the driving surface of the second mobile element is of the same sign as that of the angle of rotation of the escapement wheel, characterized in that said blocking surfaces (23, 33) of the first mobile element and of the second mobile element, are concave surfaces. - a first mobile element, - a second mobile element, - the escapement wheel subject to an essentially constant mechanical torque, and arranged for alternately transmitting mechanical energy to the first mobile element and to the second mobile element, - mechanical transmission means (24, 34) between the first mobile element and the second mobile element, - mechanical transmission and blocking means between the escapement wheel and the first mobile element, - mechanical transmission and blocking means between the escapement wheel and the second mobile element, - mechanical transmission means between the second mobile element and the plate of the pendulum,
A transport section for feeding article assemblies in a transport direction to a packaging module for the article assemblies, the transport section comprising a transfer plate on which the articles of the article assemblies are slidingly movable in the transport direction; pushing means arranged above the transfer plate for moving the articles on the transfer plate, the pushing means being movable at least in sections in the transport direction; outer guide elements arranged on the transfer plate and laterally bounding the transport section; and inner guide elements arranged on the transfer plate, the inner guide elements being adjustable by means of at least one adjusting mechanism arranged at least partially below the transfer plate, wherein the transport section is being divided into a plurality of segments in the transport direction, wherein two inner guide elements are being assigned to each segment, characterized in that the transfer plate has apertures which are formed at least in sections orthogonally to the transport direction of the articles, in particular elongated holes or slots formed orthogonally to the transport direction of the articles, in that at least parts of the adjusting mechanism are movably guided within the apertures, in particular wherein at least parts of the at least one adjusting mechanism are being movably guided within the elongated holes or slots, and in that the at least one adjusting mechanism of the two inner guide elements of a segment is coupled in such a way that the two inner guide elements of a segment can be adjusted together. a transfer plate on which the articles of the article assemblies are slidingly movable in the transport direction; pushing means arranged above the transfer plate for moving the articles on the transfer plate, the pushing means being movable at least in sections in the transport direction; outer guide elements arranged on the transfer plate and laterally bounding the transport section; and inner guide elements arranged on the transfer plate, the inner guide elements being adjustable by means of at least one adjusting mechanism arranged at least partially below the transfer plate, wherein the transport section is being divided into a plurality of segments in the transport direction, wherein two inner guide elements are being assigned to each segment, characterized in that the transfer plate has apertures which are formed at least in sections orthogonally to the transport direction of the articles, in particular elongated holes or slots formed orthogonally to the transport direction of the articles, in that at least parts of the adjusting mechanism are movably guided within the apertures, in particular wherein at least parts of the at least one adjusting mechanism are being movably guided within the elongated holes or slots, and in that the at least one adjusting mechanism of the two inner guide elements of a segment is coupled in such a way that the two inner guide elements of a segment can be adjusted together.