mhurhangee/ep-ind-claims huggingface dataset:
An electrical generator comprising: an electrical bus (52, 144, 150) within the electrical generator, the electrical bus is electrically connectable to a first source (40, 44) of electrical power within the electrical generator and to a second source (57a, 57b, 57c, 57d, 57e, 57f) of electrical power external to the electrical generator; a plurality of electrical power outputs (12, 14) electrically connected to and receiving electrical power from the electrical bus that provide electrical power to external loads (16, 18) that can be electrically connected to the electrical power outputs; the electrical generator being characterized in that it comprises: a plurality of power output modules (120, 122, 124) each of which is removably installable on the electrical generator, each power output module includes a bus connector that electrically connects to the electrical bus when the power output module is installed on the electrical generator; a supply manifold (68, 200) that supplies a thermal control fluid and a return manifold (70, 202) that receives returning thermal control fluid, and each power output module is fluidly connected to the supply manifold and to the return manifold. an electrical bus (52, 144, 150) within the electrical generator, the electrical bus is electrically connectable to a first source (40, 44) of electrical power within the electrical generator and to a second source (57a, 57b, 57c, 57d, 57e, 57f) of electrical power external to the electrical generator; a plurality of electrical power outputs (12, 14) electrically connected to and receiving electrical power from the electrical bus that provide electrical power to external loads (16, 18) that can be electrically connected to the electrical power outputs; the electrical generator being characterized in that it comprises: a plurality of power output modules (120, 122, 124) each of which is removably installable on the electrical generator, each power output module includes a bus connector that electrically connects to the electrical bus when the power output module is installed on the electrical generator; a supply manifold (68, 200) that supplies a thermal control fluid and a return manifold (70, 202) that receives returning thermal control fluid, and each power output module is fluidly connected to the supply manifold and to the return manifold. a plurality of power output modules (120, 122, 124) each of which is removably installable on the electrical generator, each power output module includes a bus connector that electrically connects to the electrical bus when the power output module is installed on the electrical generator; a supply manifold (68, 200) that supplies a thermal control fluid and a return manifold (70, 202) that receives returning thermal control fluid, and each power output module is fluidly connected to the supply manifold and to the return manifold.
A device for applying a microprojection array to the skin of a mammal, the device comprising: a) a housing; b) a collapsible trigger operably linked to a pre-loaded dome; and c) a spring fixed to the microprojection array, wherein the pre-loaded dome is encased in the housing such that when the trigger is collapsed the dome transitions from a loaded position to an unloaded position, thereby propelling the microprojection array into the mammal's skin, characterised in that the microprojection array is propelled through a space between the device and the mammal's skin, wherein the insertion of the microprojection array and its flight guiding is accomplished by the spring. a) a housing; b) a collapsible trigger operably linked to a pre-loaded dome; and c) a spring fixed to the microprojection array, wherein the pre-loaded dome is encased in the housing such that when the trigger is collapsed the dome transitions from a loaded position to an unloaded position, thereby propelling the microprojection array into the mammal's skin,
A rocket motor, the rocket motor comprising: an internally insulated cylindrical casing with end domes having centrally located apertures at fore-end and aft-end; a solid propellant grain filled within the casing, comprising: an axial through-bore running from fore-end to aft-end along the axis of the rocket motor; and a plurality of longitudinal fin cavities circular patterned about the axial through-bore, wherein the plurality of longitudinal fin cavities extend radially outward with forward-swept leading edge and trailing edge and wherein, the plurality of longitudinal fin cavities is disposed such that an acute angular dimension made by the leading edge with forward motor axis is greater than an angular dimension made by the trailing edge with the forward motor axis. an internally insulated cylindrical casing with end domes having centrally located apertures at fore-end and aft-end; a solid propellant grain filled within the casing, comprising: an axial through-bore running from fore-end to aft-end along the axis of the rocket motor; and a plurality of longitudinal fin cavities circular patterned about the axial through-bore, an axial through-bore running from fore-end to aft-end along the axis of the rocket motor; and a plurality of longitudinal fin cavities circular patterned about the axial through-bore, wherein the plurality of longitudinal fin cavities extend radially outward with forward-swept leading edge and trailing edge and wherein, the plurality of longitudinal fin cavities is disposed such that an acute angular dimension made by the leading edge with forward motor axis is greater than an angular dimension made by the trailing edge with the forward motor axis.
Removable equine buccal device intended to potentiate the mandibular opening and to stimulate the bifaterality of the mandibular movements, consisting of a system positioned behind the incisors and in front of the premolars, characterized in that a posterior bead or other reliefs close the posterior edge of a palatal mucosal covering extension containing other reliefs in the intrados, is attached to an inter-incisal plane or incisivo-canin through which there are perforated reliefs, which relative immobility has an autonomous mellow play.
A dialysis fluid system (510, 610) for recycling used dialysis fluid, the system (510, 610) comprising: a carbon source (540, 640); and a urease source (550, 650) in fluid communication with the carbon source (540, 640), characterized in that the system includes an electrodialysis/electrodeionization ("ED/EDI") unit (530, 630) in fluid communication with at least one of the carbon and urease sources (540, 550, 640, 650), the ED/EDI unit (530, 630) including (i) an ED component (580, 680), and (ii) an EDI component (590, 690) in fluid communication with the ED component (580, 680), wherein the ED component and the EDI component are separate. a carbon source (540, 640); and a urease source (550, 650) in fluid communication with the carbon source (540, 640), (i) an ED component (580, 680), and (ii) an EDI component (590, 690) in fluid communication with the ED component (580, 680), wherein the ED component and the EDI component are separate.
A method for supporting dynamic deployment of executable code from a client to a node for execution of an agent on the node, implemented as a Java virtual machine, in a distributed computing environment, characterized in that the method comprises: maintaining a class/identity table on said client; receiving agent code on the client for said agent; determining a class definition for a new class from said agent code on the client; generating a class identity for said new class based on the class definition; using the class/identity table to determine that said new class is not present in the class path of the node; adding the class identity for said new class to the class/identity table; generating on said client a serialized object comprising the class definition for the new class not present in the class path of the node and the captured state of the agent utilizing said new class, wherein the captured agent state is the agent state required to construct an instance of the agent on the node; and transmitting said serialized object to the node; receiving at the node the serialized object from the client; deserializing the serialized object on the node to retrieve said class definition for said new class and said captured state of the agent; using said class definition for said new class and said captured state of the agent on the node to prepare a class loader for the new class definition; loading the new class definition into the memory of the node, using said class loader, to generate an instance of said new class on the node; and executing the agent on the node. maintaining a class/identity table on said client; receiving agent code on the client for said agent; determining a class definition for a new class from said agent code on the client; generating a class identity for said new class based on the class definition; using the class/identity table to determine that said new class is not present in the class path of the node; adding the class identity for said new class to the class/identity table; generating on said client a serialized object comprising the class definition for the new class not present in the class path of the node and the captured state of the agent utilizing said new class, wherein the captured agent state is the agent state required to construct an instance of the agent on the node; and transmitting said serialized object to the node; receiving at the node the serialized object from the client; deserializing the serialized object on the node to retrieve said class definition for said new class and said captured state of the agent; using said class definition for said new class and said captured state of the agent on the node to prepare a class loader for the new class definition; loading the new class definition into the memory of the node, using said class loader, to generate an instance of said new class on the node; and executing the agent on the node.
A vacuum pump, in particular a booster pump, comprising a Holweck pump stage; at least two side channel pump stages which are arranged downstream of the Holweck pump stage, which act in series and which are arranged axially offset from one another; a pump rotor which forms a common pump rotor of the Holweck pump stage and the side channel pump stages; and an electric motor, wherein rotor elements of the Holweck pump stage are connected to a rotor shaft of the pump rotor independently of rotor elements of the side channel pump stages, characterized in that the side channel pump stages are arranged radially offset from one another, and i) the side channel pump stages are arranged axially overlapping with the electric motor, and/or ii) the pump rotor has a magnetic bearing at a suction-side end of the pump rotor and the magnetic bearing is arranged axially overlapping with the Holweck pump stage. at least two side channel pump stages which are arranged downstream of the Holweck pump stage, which act in series and which are arranged axially offset from one another; a pump rotor which forms a common pump rotor of the Holweck pump stage and the side channel pump stages; and an electric motor, wherein rotor elements of the Holweck pump stage are connected to a rotor shaft of the pump rotor independently of rotor elements of the side channel pump stages, characterized in that the side channel pump stages are arranged radially offset from one another, and i) the side channel pump stages are arranged axially overlapping with the electric motor, and/or ii) the pump rotor has a magnetic bearing at a suction-side end of the pump rotor and the magnetic bearing is arranged axially overlapping with the Holweck pump stage. i) the side channel pump stages are arranged axially overlapping with the electric motor, and/or ii) the pump rotor has a magnetic bearing at a suction-side end of the pump rotor and the magnetic bearing is arranged axially overlapping with the Holweck pump stage.
A machine-implemented method, comprising: (a) accessing a set of input aerial or satellite images, the set of input images comprising overlapping images; (b) determining relative accuracies between pairs of the overlapping images based on a shear of each respective pair of overlapping images; and (c) estimating absolute geospatial accuracy of the set of the input images, without absolute geospatial reference points, based on a statistical measure of the relative accuracies between the pairs of the overlapping images; the method characterized by further comprising: evaluating a digital elevation map, DEM, of a geographic region by: performing steps (a), (b), and (c), to estimate absolute geospatial accuracy of a set of Level 1B images of the geographic region based on a statistical measure of relative accuracies between pairs of overlapping Level 1B images in the set of Level 1B images; performing steps (a), (b), and (c), to estimate absolute geospatial accuracy of a set of orthorectified images of the geographic region based on a statistical measure of relative accuracies between pairs of overlapping orthorectified images in the set of orthorectified images; and determining errors in the DEM based on differences between the estimated absolute geospatial accuracy of the set of orthorectified images and the estimated absolute geospatial accuracy of the set of Level 1B images. (a) accessing a set of input aerial or satellite images, the set of input images comprising overlapping images; (b) determining relative accuracies between pairs of the overlapping images based on a shear of each respective pair of overlapping images; and (c) estimating absolute geospatial accuracy of the set of the input images, without absolute geospatial reference points, based on a statistical measure of the relative accuracies between the pairs of the overlapping images; performing steps (a), (b), and (c), to estimate absolute geospatial accuracy of a set of Level 1B images of the geographic region based on a statistical measure of relative accuracies between pairs of overlapping Level 1B images in the set of Level 1B images; performing steps (a), (b), and (c), to estimate absolute geospatial accuracy of a set of orthorectified images of the geographic region based on a statistical measure of relative accuracies between pairs of overlapping orthorectified images in the set of orthorectified images; and determining errors in the DEM based on differences between the estimated absolute geospatial accuracy of the set of orthorectified images and the estimated absolute geospatial accuracy of the set of Level 1B images.
A diagnostic support apparatus comprising: - a detecting means for detecting an analog signal of a pulse waveform from a detecting position of an animate being and transmitting said analog signal; - a processor, said processor having: means for receiving said analog signal; a converter to convert said analog signal to a digital signal; an algorithm for locating pulses within said waveform and locating a center of each pulse; - a time differential detector that is characterized in being adapted for measuring the time difference between the arrival of a first pulse, said first pulse being the primary left ventricular ejection pulse and the arrival of a second pulse, said second pulse being the iliac reflection pulse, said first pulse and said second pulse being pulses whose changes in time difference corresponds to changes in blood volume due to hypervolemia or hypovolemia in said animate being, said first pulse corresponding to the first peak on a pulse wave form and the second pulse corresponding to a different peak on the pulse wave form. - a detecting means for detecting an analog signal of a pulse waveform from a detecting position of an animate being and transmitting said analog signal; - a processor, said processor having: means for receiving said analog signal; a converter to convert said analog signal to a digital signal; an algorithm for locating pulses within said waveform and locating a center of each pulse; - a time differential detector that is characterized in being adapted for measuring the time difference between the arrival of a first pulse, said first pulse being the primary left ventricular ejection pulse and the arrival of a second pulse, said second pulse being the iliac reflection pulse, said first pulse and said second pulse being pulses whose changes in time difference corresponds to changes in blood volume due to hypervolemia or hypovolemia in said animate being, said first pulse corresponding to the first peak on a pulse wave form and the second pulse corresponding to a different peak on the pulse wave form. - a processor, said processor having: means for receiving said analog signal; a converter to convert said analog signal to a digital signal; an algorithm for locating pulses within said waveform and locating a center of each pulse; means for receiving said analog signal; a converter to convert said analog signal to a digital signal; an algorithm for locating pulses within said waveform and locating a center of each pulse; - a time differential detector that is characterized in being adapted for measuring the time difference between the arrival of a first pulse, said first pulse being the primary left ventricular ejection pulse and the arrival of a second pulse, said second pulse being the iliac reflection pulse, said first pulse and said second pulse being pulses whose changes in time difference corresponds to changes in blood volume due to hypervolemia or hypovolemia in said animate being, said first pulse corresponding to the first peak on a pulse wave form and the second pulse corresponding to a different peak on the pulse wave form.
An NBR composition for rubber laminated metal, comprising 1 to 3 parts by weight of sulfur and 1 to 15 parts by weight of a disulfide compound represented by the general formula RN-S-S-NR (wherein RN is a cyclic linking group formed together with the N atom bonded to the S atom), based on 100 parts by weight of NBR.
Pharmaceutical composition comprising, in a pharmaceutically acceptable support suitable for topical application, from 10% to 30% by weight, relative to the total weight of the composition, of amitriptyline or of a pharmaceutically acceptable salt thereof, for use in the topical treatment of chemotherapy-induced peripheral neuropathic pain.
An apparatus for inserting one or more goods (G 1, G 2) into a moveable envelope (E 1, E 2), comprising: a goods conveyor configured to move the one or more goods (G 1, G 2) with a first velocity; at least one filling aid (310, 320) including a pair of filling fingers, the pair of filling fingers movable by a predetermined distance into the envelope, the pair of filling fingers guiding the one or more goods to be inserted into an envelope opening of the envelope in such a manner so as to prevent collisions between side edges of the goods and side edges of the envelope and without otherwise moving the envelope, and a distance between the filling fingers of a filling finger pair is dependent on the goods to be inserted and not dependent on a lateral dimension of the envelope; and an envelope conveyor configured to move the envelope (E 1, E 2) with a second velocity, the second velocity being different from the first velocity, wherein the envelope conveyor is configured to move the envelope (E 1, E 2) in the goods transport direction with the envelope opening, facing backward relative to the direction of travel, extending perpendicular to the common envelope and goods transport direction, wherein the goods conveyor and the envelope conveyor are configured to move the one or more goods (G 1, G 2) and the envelope (E 1, E 2) continuously. a goods conveyor configured to move the one or more goods (G 1, G 2) with a first velocity; at least one filling aid (310, 320) including a pair of filling fingers, the pair of filling fingers movable by a predetermined distance into the envelope, the pair of filling fingers guiding the one or more goods to be inserted into an envelope opening of the envelope in such a manner so as to prevent collisions between side edges of the goods and side edges of the envelope and without otherwise moving the envelope, and a distance between the filling fingers of a filling finger pair is dependent on the goods to be inserted and not dependent on a lateral dimension of the envelope; and an envelope conveyor configured to move the envelope (E 1, E 2) with a second velocity, the second velocity being different from the first velocity, wherein the envelope conveyor is configured to move the envelope (E 1, E 2) in the goods transport direction with the envelope opening, facing backward relative to the direction of travel, extending perpendicular to the common envelope and goods transport direction, wherein the goods conveyor and the envelope conveyor are configured to move the one or more goods (G 1, G 2) and the envelope (E 1, E 2) continuously.
A golf ball comprising a spherical core, an intermediate layer positioned outside the spherical core, and a cover positioned outside the intermediate layer, wherein the spherical core includes an inner layer and an outer layer, a difference (H X+1 -H X-1) between a hardness (H X+1) at a point outwardly away in a radial direction from a boundary between the inner layer and the outer layer of the spherical core by 1 mm and a hardness (H X-1) at a point inwardly away in the radial direction from the boundary between the inner layer and the outer layer of the spherical core by 1 mm is 0 or more in Shore C hardness, a surface hardness (H X+Y) of the spherical core is more than 65 in Shore C hardness, an angle α of a hardness gradient of the inner layer calculated by a formula is 0o or more, a difference (α-β) between the angle α and an angle β of a hardness gradient of the outer layer calculated by a formula is 0° or more, a total thickness of a thickness (Tm) of the intermediate layer and a thickness (Tc) of the cover is 3 mm or less, and the cover has a highest hardness among the constituent members of the golf ball, α = 180 / π × atan H x − 1 − Ho / X − 1 β = 180 / π × atan H X + Y − H x + 1 / Y − 1 where X represents a radius (mm) of the inner layer, Y represents a thickness (mm) of the outer layer, Ho represents a center hardness in Shore C of the spherical core, H X-1 represents the hardness in Shore C at the point inwardly away in the radial direction from the boundary between the inner layer and the outer layer of the spherical core by 1 mm, H X+1 represents the hardness in Shore C at the point outwardly away in the radial direction from the boundary between the inner layer and the outer layer of the spherical core by 1 mm, and H X+Y represents the surface hardness in Shore C of the spherical core.
A skin cleansing composition comprising 0.08 mass% or more and 35 mass% or less of 2-amino-2-methyl-1-propanol and having a pH of 9.3 or more and 12.5 or less at 25°C, wherein the skin cleansing composition further comprises an anionic surfactant, wherein the component comprises an anionic surfactant having a carboxylic acid group and/or an anionic surfactant having a sulfonic acid group or a sulfate group, wherein the skin cleansing composition is in a foam, liquid, paste or cream dosage form, and wherein if component comprises then the mass ratio of the content of the component to the content of the component, /(Al), is 1 or more and 100 or less. wherein the skin cleansing composition further comprises an anionic surfactant, wherein the component comprises an anionic surfactant having a carboxylic acid group and/or an anionic surfactant having a sulfonic acid group or a sulfate group, wherein the skin cleansing composition is in a foam, liquid, paste or cream dosage form, and wherein if component comprises then the mass ratio of the content of the component to the content of the component, /(Al), is 1 or more and 100 or less.