mhurhangee/ep-ind-claims huggingface dataset:
A casing flange coupling assembly comprising: a first casing comprising a first flange, said first flange including at least one bolt hole; a second casing coupled to said first casing, said second casing comprising a second flange, said second flange including at least one bolt hole aligned with said first flange bolt hole; and a bushing coupled to said second flange, said bushing comprising a body portion including a cylinder portion having a bore configured to receive a bolt, the cylinder portion configured to insert into the bolt hole; a flange portion orthogonal and integral to said cylinder portion, said flange portion configured to couple with a load bearing surface of said second flange; a lip portion integral to said flange portion proximate said cylinder portion; wherein said bolt is inserted through said bore and said first flange at least one bolt hole; and said lip portion is configured to redistribute a flange load, characterised in that said lip portion comprises a curvilinear shape that matches a radius of a fillet of said second flange. a first casing comprising a first flange, said first flange including at least one bolt hole; a second casing coupled to said first casing, said second casing comprising a second flange, said second flange including at least one bolt hole aligned with said first flange bolt hole; and a bushing coupled to said second flange, said bushing comprising a body portion including a cylinder portion having a bore configured to receive a bolt, the cylinder portion configured to insert into the bolt hole; a flange portion orthogonal and integral to said cylinder portion, said flange portion configured to couple with a load bearing surface of said second flange; a lip portion integral to said flange portion proximate said cylinder portion; wherein said bolt is inserted through said bore and said first flange at least one bolt hole; and said lip portion is configured to redistribute a flange load, characterised in that said lip portion comprises a curvilinear shape that matches a radius of a fillet of said second flange.
A dynamo-electric machine comprising a rotor which is rotatable within a stator provided with stator windings, the rotor comprising an annular core of ferromagnetic material provided with external circumferential layers (16... 20), the layers comprising an environmental enclosure and at least one sleeve (16, 18) of electrically conductive material disposed between the rotor core and the environmental enclosure, characterised in that the environmental enclosure is made from an electrically conductive material and in that the electrical resistance of the environmental enclosure is higher than that of the or each sleeve.
A controller for controlling an operation of a vapor compression cycle based on a hybrid model of dynamics of the vapor compression cycle including a physics-based model and a data driven model, wherein the physics-based model is configured to predict transitions of states of the vapor compression cycle in accordance with observed variables and a control input to the vapor compression cycle based on parameters of the physics-based model, and wherein the data driven model is trained with machine learning to estimate residual errors of the state transitions predicted by the physics-based model, the controller comprising: a processor; and a memory having instructions stored thereon that, when executed by the processor, cause the controller to: collect a digital representation of observed variables and control inputs of the operation of the vapor compression cycle over multiple instances of time; execute a constrained Kalman smoother over the observed variables collected over multiple instances of time to jointly estimate the parameters of the physics-based model and states of the vapor compression cycle by minimizing a cost function comprised of residual errors of the state transitions predicted by the physics-based model for the multiple instances of time, and residual errors between observed variables estimated by the constrained Kalman smoother for the multiple instances of time and the corresponding collected observed variables; update the data driven model to minimize a difference between the states estimated by executing the constrained Kalman smoother over the observed variables collected over multiple instances of time and the states predicted by the physics-based model; update the hybrid model with the estimated parameters of the physics-based model and the updated data driven model; and control the operation of the vapor compression cycle using the updated hybrid model. collect a digital representation of observed variables and control inputs of the operation of the vapor compression cycle over multiple instances of time; execute a constrained Kalman smoother over the observed variables collected over multiple instances of time to jointly estimate the parameters of the physics-based model and states of the vapor compression cycle by minimizing a cost function comprised of residual errors of the state transitions predicted by the physics-based model for the multiple instances of time, and residual errors between observed variables estimated by the constrained Kalman smoother for the multiple instances of time and the corresponding collected observed variables; update the data driven model to minimize a difference between the states estimated by executing the constrained Kalman smoother over the observed variables collected over multiple instances of time and the states predicted by the physics-based model; update the hybrid model with the estimated parameters of the physics-based model and the updated data driven model; and control the operation of the vapor compression cycle using the updated hybrid model.
A method for making a burnable fuel comprising: providing at least one source material (404, 504) to form an input material (406, 506), where the source material is a used or waste material comprising a complex mixture of components including metal materials, wherein the input material includes: from about 50 wt. % to about 100 wt. % of combustible materials selected from the group consisting of pulp materials, fiber materials, fabric materials, polymer materials, ceramic materials, and mixtures or combinations, up to 20 wt.% of non-combustible materials including the metal materials, from about 0 wt. % to about 50 wt.% of binding agents, and from about 0 wt.% to about 50 wt.% of conventional fuels; sizing or sizing and partially or completely homogenizing the input material (406, 506) into a particulate burnable fuel (410, 514) without separating into components, where the fuel is suitable for use as a fuel for cement plants, power plants, municipal incinerators for steam generation, or any other facility that burns fuels and converts heat derived from the burning of the fuel into a usable form of energy or uses the heat and/or ash to make an end product. providing at least one source material (404, 504) to form an input material (406, 506), where the source material is a used or waste material comprising a complex mixture of components including metal materials, wherein the input material includes: from about 50 wt. % to about 100 wt. % of combustible materials selected from the group consisting of pulp materials, fiber materials, fabric materials, polymer materials, ceramic materials, and mixtures or combinations, up to 20 wt.% of non-combustible materials including the metal materials, from about 0 wt. % to about 50 wt.% of binding agents, and from about 0 wt.% to about 50 wt.% of conventional fuels; from about 50 wt. % to about 100 wt. % of combustible materials selected from the group consisting of pulp materials, fiber materials, fabric materials, polymer materials, ceramic materials, and mixtures or combinations, up to 20 wt.% of non-combustible materials including the metal materials, from about 0 wt. % to about 50 wt.% of binding agents, and from about 0 wt.% to about 50 wt.% of conventional fuels; sizing or sizing and partially or completely homogenizing the input material (406, 506) into a particulate burnable fuel (410, 514) without separating into components, where the fuel is suitable for use as a fuel for cement plants, power plants, municipal incinerators for steam generation, or any other facility that burns fuels and converts heat derived from the burning of the fuel into a usable form of energy or uses the heat and/or ash to make an end product.
Dispenser for dispensing a pharmaceutical medium, comprising - a sensor (33; 34) for sensing a dispensing operation and - an electronic processing circuit for sensing and further processing a signal caused by the sensor (33; 34), wherein - the sensor (33; 34) is part of a sensor unit, which has a radio transmitter (38; 39) for producing a radio signal, and - the processing circuit has a radio receiver (46; 47), which is designed for receiving the radio signal produced by the radio transmitter (38; 39), characterized in that the sensor unit is assigned a conversion device for the conversion of mechanical energy into electrical energy such that the mechanical energy that is introduced by a user in the course of a dispensing operation is used to convert it at least partially into electrical energy, which can subsequently supply the radio transmitter. - a sensor (33; 34) for sensing a dispensing operation and - an electronic processing circuit for sensing and further processing a signal caused by the sensor (33; 34), wherein - the sensor (33; 34) is part of a sensor unit, which has a radio transmitter (38; 39) for producing a radio signal, and - the processing circuit has a radio receiver (46; 47), which is designed for receiving the radio signal produced by the radio transmitter (38; 39),
An injection device comprising: - a housing, - a dose setting member being operable to set a dose by rotating said dose setting member relatively to the housing, about a rotational axis, - a piston rod adapted to cause a set dose to be injected from the injection device, - an injection button adapted to perform an axial movement, and operable to cooperate with the piston rod in injecting a set dose in such a manner that when the injection button is operated a set dose is caused to be injected by the piston rod, - a gearing arrangement (9,26,12;22) comprising at least one gear wheel, the gearing arrangement (9,26,12;22) providing a gearing ratio between an axial movement of the injection button and an axial movement of the piston rod, wherein the gearing arrangement (9,26,12;22), during setting of a dose, is prevented from rotating along with the dose setting member about the rotational axis, and moves along the rotational axis relatively to the piston rod as the dose setting member is rotated, and wherein at least one of the gear wheel(s) (9,26,12;22) has a rotational axis which is non-parallel to the rotational axis of the dose setting member, characterized in that, during injection of a set dose, the piston rod is caused to move along with the gearing arrangement (9,26,12;22) thereby maintaining its position relatively to the gearing arrangement (9,26,12;22). - a housing, - a dose setting member being operable to set a dose by rotating said dose setting member relatively to the housing, about a rotational axis, - a piston rod adapted to cause a set dose to be injected from the injection device, - an injection button adapted to perform an axial movement, and operable to cooperate with the piston rod in injecting a set dose in such a manner that when the injection button is operated a set dose is caused to be injected by the piston rod, - a gearing arrangement (9,26,12;22) comprising at least one gear wheel, the gearing arrangement (9,26,12;22) providing a gearing ratio between an axial movement of the injection button and an axial movement of the piston rod,
A satellite comprising: a steerable antenna system that includes an antenna array and is configured to receive an uplink signal that illuminates a particular region of the antenna array in dependence on a current pointing direction of the steerable antenna system, and wherein the antenna array comprises a plurality of array elements arranged according to a feed grid; and a control system configured to: convert received-signal power measurements made for individual array elements of the antenna array during reception of the uplink signal into a power-distribution image comprising pixels arranged on a pixel grid derived from the feed grid and having pixel values determined in dependence on the received-signal power measurements made for corresponding ones of the array elements; determine a center location of an illuminated region in the power-distribution image that corresponds to the uplink signal, the center location expressed in feed-grid coordinates; and derive a pointing correction for the steerable antenna system in dependence on a difference between the center location and a reference location that also is expressed in feed-grid coordinates. a steerable antenna system that includes an antenna array and is configured to receive an uplink signal that illuminates a particular region of the antenna array in dependence on a current pointing direction of the steerable antenna system, and wherein the antenna array comprises a plurality of array elements arranged according to a feed grid; and a control system configured to: convert received-signal power measurements made for individual array elements of the antenna array during reception of the uplink signal into a power-distribution image comprising pixels arranged on a pixel grid derived from the feed grid and having pixel values determined in dependence on the received-signal power measurements made for corresponding ones of the array elements; determine a center location of an illuminated region in the power-distribution image that corresponds to the uplink signal, the center location expressed in feed-grid coordinates; and derive a pointing correction for the steerable antenna system in dependence on a difference between the center location and a reference location that also is expressed in feed-grid coordinates. convert received-signal power measurements made for individual array elements of the antenna array during reception of the uplink signal into a power-distribution image comprising pixels arranged on a pixel grid derived from the feed grid and having pixel values determined in dependence on the received-signal power measurements made for corresponding ones of the array elements; determine a center location of an illuminated region in the power-distribution image that corresponds to the uplink signal, the center location expressed in feed-grid coordinates; and derive a pointing correction for the steerable antenna system in dependence on a difference between the center location and a reference location that also is expressed in feed-grid coordinates.
Power supply device for a crucible heater, comprising at least one heating circuit (26,30), which in each case comprises at least two power supply modules (12,14,16,18,20), and a process control device for controlling the power supply modules (12,14,16,18,20), wherein output terminals (24,29) of the at least two power supply modules (12,14,16,18,20) are connected in parallel in the or each heating circuit (26,30), characterised in that each power supply module (12,14,16,18,20) comprises three identical submodules which are connected to one another via an internal system bus, each submodule comprises a rectifier unit and a power factor correction stage, and clocked output stages are connected in series to the power factor correction stage.
A catheter comprising a handle having a hole, a tubular membrane having a part which is partially enlarged for forming a balloon, an inner tube being attached to the handle and having a body and a distal part of the inner tube, the distal part containing lateral holes (11a, 11b), an outer tube, a proximal opening of the catheter that is attachable to bags for holding body fluids, wherein the handle comprises a proximal part of the handle, a medial part of the handle and a distal part of the handle, wherein the proximal part of the handle is detachably connected with the medial part of the handle and the medial part of the handle is detachably connected with the distal part of the handle, the tubular membrane being slidable between the distal part of the handle and the distal part of the inner tube through the outer tube, the outer tube is in fixed connection to the medial part of the handle and the body of the inner tube is mounted to the proximal part of the handle, the distal part of the handle further comprising a proximal membrane attachment, the inner tube further comprising a distal membrane attachment for tight engagement of the tubular membrane with the distal part of the inner tube, a diameter of the distal part of the inner tube being smaller than a diameter of the body of the inner tube, said distal part of the inner tube having a hole at the end of the distal part of the inner tube and two lateral holes (11a, 11b) and between the outer tube and the tubular membrane is embedded a hermetically sealed space, characterized in that the medial part of the handle further comprises a nut, said nut fitting with a thread of the distal part of the handle, and the proximal part of the handle comprises a nut, said nut fitting with a thread of the medial part of the handle, in that the outer tube, further has lateral channels (15a, 15b) fitting with protrusions (20a, 20b) of the distal part of the handle, respectively, for sliding of the distal part of the handle along the outer tube, the body of the inner tube has lateral channels (19a, 19b) fitting with protrusions (24a, 24b) of the medial part of the handle, respectively, and in that said outer tube has a rounded tip. the medial part of the handle further comprises a nut, said nut fitting with a thread of the distal part of the handle, and the proximal part of the handle comprises a nut, said nut fitting with a thread of the medial part of the handle, in that the outer tube, further has lateral channels (15a, 15b) fitting with protrusions (20a, 20b) of the distal part of the handle, respectively, for sliding of the distal part of the handle along the outer tube, the body of the inner tube has lateral channels (19a, 19b) fitting with protrusions (24a, 24b) of the medial part of the handle, respectively, and in that said outer tube has a rounded tip.
A composition comprising (a) a molecule of Formula One Formula One also known as F1, and (b) a second active ingredient (" 2AI ") which is Abamectin. (a) a molecule of Formula One Formula One also known as F1, and (b) a second active ingredient (" 2AI ") which is Abamectin.
A trough bridge, in particular a railway bridge, having abutments and at least one trough-shaped superstructure, - which is suitable for accommodating a carriageway, - which comprises at least two trough walls which run in the longitudinal direction of the bridge and between which there is a carriageway deck which comprises a thick metal plate, characterised in that the trough walls together with the abutments form a monolithic composite frame consisting of reinforced concrete. - which is suitable for accommodating a carriageway, - which comprises at least two trough walls which run in the longitudinal direction of the bridge and between which there is a carriageway deck which comprises a thick metal plate,
Vehicle glass guiding and sealing element (1, 2) comprising: a. a stationary glass pane; b. at least a first glass guiding profile for guiding a movable glass pane; and c. a sealing profile; wherein d. the sealing profile consists of a TPE molding material and is over-molded to a rim portion of the stationary glass pane; and e. the first glass guiding profile is bonded to the stationary glass pane by over-molding of the stationary glass pane under the first glass guiding profile by means of the same TPE molding material; characterized by f. at least one glass holding clip (50, 60), wherein the glass holding clip (50, 60) is arranged in contact with the stationary glass pane. a. a stationary glass pane; b. at least a first glass guiding profile for guiding a movable glass pane; and c. a sealing profile; wherein d. the sealing profile consists of a TPE molding material and is over-molded to a rim portion of the stationary glass pane; and e. the first glass guiding profile is bonded to the stationary glass pane by over-molding of the stationary glass pane under the first glass guiding profile by means of the same TPE molding material; characterized by f. at least one glass holding clip (50, 60), wherein the glass holding clip (50, 60) is arranged in contact with the stationary glass pane.
A surgical end effector assembly, comprising: an ultrasonic blade adapted to connect to an ultrasonic transducer configured to transmit ultrasonic energy to the ultrasonic blade; characterized in that, the assembly further comprises first and second panels disposed on opposite sides of the ultrasonic blade in laterally-spaced relation relative thereto; and a jaw pivotable relative to the ultrasonic blade and the first and second panels between open and clamping positions, wherein at least two of the ultrasonic blade, the first and second panels, or the jaw are energizable to different electrical potentials for transmitting an electric signal therebetween and through tissue for at least one of interrogating tissue or treating tissue. an ultrasonic blade adapted to connect to an ultrasonic transducer configured to transmit ultrasonic energy to the ultrasonic blade; characterized in that, the assembly further comprises first and second panels disposed on opposite sides of the ultrasonic blade in laterally-spaced relation relative thereto; and a jaw pivotable relative to the ultrasonic blade and the first and second panels between open and clamping positions, wherein at least two of the ultrasonic blade, the first and second panels, or the jaw are energizable to different electrical potentials for transmitting an electric signal therebetween and through tissue for at least one of interrogating tissue or treating tissue.
Valve, in particular for a combustion engine air circuit, comprising: - a body (2a, 2b) in which there are formed a main duct and an auxiliary duct opening into the main duct, - a shutter pivotably mounted in the body (2a, 2b) by means of a spindle, the shutter being offset radially with respect to the spindle, the shutter comprising a first portion able to close off all or part of the main duct when the shutter is in a first position, and a second portion able to close off all or part of the auxiliary duct when the shutter is in a second position, the valve being characterized in that it comprises - a seal borne by the second portion of the shutter and arranged so as to be interposed between at least one zone of said second portion and at least one zone of the body when the shutter is in the second position, the seal extending along all or part of the periphery of said second portion of the shutter, the second portion coming into contact with the spindle by a first side and coming into contact with the first portion by a second side opposite to the first side. - a body (2a, 2b) in which there are formed a main duct and an auxiliary duct opening into the main duct, - a shutter pivotably mounted in the body (2a, 2b) by means of a spindle, the shutter being offset radially with respect to the spindle, the shutter comprising a first portion able to close off all or part of the main duct when the shutter is in a first position, and a second portion able to close off all or part of the auxiliary duct when the shutter is in a second position, the valve being characterized in that it comprises - a seal borne by the second portion of the shutter and arranged so as to be interposed between at least one zone of said second portion and at least one zone of the body when the shutter is in the second position, the seal extending along all or part of the periphery of said second portion of the shutter, the second portion coming into contact with the spindle by a first side and coming into contact with the first portion by a second side opposite to the first side.