mhurhangee/ep-ind-claims huggingface dataset:
An imaging system comprising: a spherical window, wherein the window is a pressure window having an outer surface and an inner surface (110, 115) defining concentric spheres; a housing coupled to the window; a seal provided between the window and the housing for preventing leaks between the window and the housing; a paraboloidal reflector located within the sphere defined by the inner surface including a focus point located at a center of a sphere defined by the outer surface of the window; and an image sensor supported by the housing, wherein light entering the window at an angle perpendicular to the outer surface of the window and exiting the window at an angle perpendicular to the inner surface and traveling to the focus point is reflected onto the image sensor by the reflector. a spherical window, wherein the window is a pressure window having an outer surface and an inner surface (110, 115) defining concentric spheres; a housing coupled to the window; a seal provided between the window and the housing for preventing leaks between the window and the housing; a paraboloidal reflector located within the sphere defined by the inner surface including a focus point located at a center of a sphere defined by the outer surface of the window; and an image sensor supported by the housing, wherein light entering the window at an angle perpendicular to the outer surface of the window and exiting the window at an angle perpendicular to the inner surface and traveling to the focus point is reflected onto the image sensor by the reflector.
A braking system for escalators and moving walkways, comprising: - at least one braking device, each with a main brake of the type which is released when there is no voltage in its electric activation means, and an auxiliary brake of the type which is closed when there is no voltage in its electric activation means; and - control means for controlling the at least one braking device configured for activating the at least one auxiliary brake for taking the escalator or moving walkway to a safe position when there is a system failure; obtaining the load of the escalator or moving walkway; characterized in that the control means are further configured for: calculating the braking torque required for each braking device depending on said load; and activating either the main brake alone or the main brake together with the auxiliary brake, depending on the value of the calculated braking torque, for obtaining the corresponding torque while braking when a braking command is received. - at least one braking device, each with a main brake of the type which is released when there is no voltage in its electric activation means, and an auxiliary brake of the type which is closed when there is no voltage in its electric activation means; and - control means for controlling the at least one braking device configured for activating the at least one auxiliary brake for taking the escalator or moving walkway to a safe position when there is a system failure; calculating the braking torque required for each braking device depending on said load; and activating either the main brake alone or the main brake together with the auxiliary brake, depending on the value of the calculated braking torque, for obtaining the corresponding torque while braking when a braking command is received.
Cylinder running surface of a cylinder of a reciprocating piston engine with recesses in the form of grooves spaced apart from one another, whereby plateaus are formed between adjacent grooves and with recesses in the form of plateau grooves in the region of the plateaus, wherein the grooves are formed consistently over the entire working height of the cylinder running surface with the same intersection angle (α), the grooves having a greater depth than the plateau grooves and the first plateau regions are formed with a first orientation of plateau grooves, characterized in that, at least second plateau regions are formed with a second orientation of plateau grooves, the first orientation and the second orientation differing from one another.
A cryogenic machining system comprising: a cryogenic fluid source; a flow regulator downstream of the cryogenic fluid source; a machining control unit; at least one sensor downstream of the flow regulator, the at least one sensor configured to assess cryogenic fluid and transmit first data to the machining control unit; a cutting tool downstream of the at least one sensor, wherein the cutting tool is configured to work on a surface of a work piece; and an infrared sensor configured to assess the cutting tool at the surface of the work piece and communicate second data to the machine control unit; wherein the machining control unit is configured to control the flow regulator in response to the first and second data and to control action and placement of the cutting tool. a cryogenic fluid source; a flow regulator downstream of the cryogenic fluid source; a machining control unit; at least one sensor downstream of the flow regulator, the at least one sensor configured to assess cryogenic fluid and transmit first data to the machining control unit; a cutting tool downstream of the at least one sensor, wherein the cutting tool is configured to work on a surface of a work piece; and an infrared sensor configured to assess the cutting tool at the surface of the work piece and communicate second data to the machine control unit; wherein the machining control unit is configured to control the flow regulator in response to the first and second data and to control action and placement of the cutting tool.
An apparatus comprising: a microfluidic substrate (250,250-1,250-2)having a channel (300,300-1,300-2, 324) for transporting fluid, a first side of the microfluidic substrate having a plurality of apertures (306-1,306-2,306-3) through which fluid enters the channel; a plurality of fluidic nozzles (130-1,130-2,130-3,184) disposed adjacent the first side of the microfluidic substrate, each fluidic nozzle having a fluid-egress end in alignment with and facing one of the apertures in the first side of the microfluidic substrate, wherein an elastic modulus of each fluidic nozzle is lower than an elastic modulus of the microfluidic substrate; and a clamping assembly that, in a closed state, clamps the fluid-egress ends of the fluidic nozzles flush against the first side of the microfluidic substrate with sufficient pressure to establish a leakproof fluidic pathway between each fluidic nozzle and the aperture with which the fluidic nozzle is in alignment, wherein, in an open state of the clamping assembly, the microfluidic substrate floats freely to self level during transition to the closed state. a microfluidic substrate (250,250-1,250-2)having a channel (300,300-1,300-2, 324) for transporting fluid, a first side of the microfluidic substrate having a plurality of apertures (306-1,306-2,306-3) through which fluid enters the channel; a plurality of fluidic nozzles (130-1,130-2,130-3,184) disposed adjacent the first side of the microfluidic substrate, each fluidic nozzle having a fluid-egress end in alignment with and facing one of the apertures in the first side of the microfluidic substrate, wherein an elastic modulus of each fluidic nozzle is lower than an elastic modulus of the microfluidic substrate; and a clamping assembly that, in a closed state, clamps the fluid-egress ends of the fluidic nozzles flush against the first side of the microfluidic substrate with sufficient pressure to establish a leakproof fluidic pathway between each fluidic nozzle and the aperture with which the fluidic nozzle is in alignment, wherein, in an open state of the clamping assembly, the microfluidic substrate floats freely to self level during transition to the closed state.
Vibration bearing for an exhaust system in a motor vehicle, with an elastic damping element, formed as a radially symmetrical, ovalised rubber body, and a pretension device compressing the elastic damping element, which pretension device comprises two clamping caps (22, 24) which lie on the elastic damping element and have a bell-shaped inner contour corresponding to the ovalised outer contour of the elastic damping element and also comprises a clamping element which is a clamping screw which passes axially through the elastic damping element, and on the ends of which the two clamping caps (22, 24) can be screwed by means of associated lock nuts (32, 34) such that said lock nuts compress the elastic damping element lying in-between in both the radial and in the axial deflection direction, wherein a first fixing region is allocated to the elastic damping element as a radial circumferential recess on the elastic damping element to receive a first mounting element and a second fixing region is allocated to the pretension device as a screw neck formed on the pretension device for attaching a second mounting element.
A wheel or wheelset of a railway rolling stock for measuring the force effect between said wheel or wheelset and the rail during ride of the railway rolling stock, the principle of which consists of detecting the deformation of said wheel or the wheelset, said wheel or wheelset comprising a strain gauge system placed on one side of said wheel or wheelset, on one pitch circle and composed of Wheatstone complete bridges, each complete Wheatstone bridge comprising four strain gauges, characterized in that the arrangement of the strain gauge system is optimized to detect tangential forces, which is achieved by the rotation of all the strain gauges away from the radial position by an angle β = 45°, wherein the minimum number of the Wheatstone complete bridges arranged on the wheel or wheelset is two. which consists of detecting the deformation of said wheel or the wheelset, said wheel or wheelset comprising a strain gauge system placed on one side of said wheel or wheelset, on one pitch circle and composed of Wheatstone complete bridges, each complete Wheatstone bridge comprising four strain gauges, characterized in that the arrangement of the strain gauge system is optimized to detect tangential forces, which is achieved by the rotation of all the strain gauges away from the radial position by an angle β = 45°, wherein the minimum number of the Wheatstone complete bridges arranged on the wheel or wheelset is two.
Method for arranging transmissions on a downlink carrier c, having a maximum frequency range F c, in a mobile radio communications system, wherein a bandwidth of F c belongs to a set of predefined channel bandwidths in the communications system, and wherein the carrier c comprises a reference signal defined in the communications system, characterized by: - providing a configurable frequency range F RS comprising a set of time-frequency resources for comprising the cell specific reference signals of the carrier c, wherein F RS is adjusted over a available frequency range F that is smaller than F c and within F c; - scheduling data transmissions on the carrier within the available frequency range F and - signaling information associated with the configuration of said frequency range F RS to a receiver in the communications system. - providing a configurable frequency range F RS comprising a set of time-frequency resources for comprising the cell specific reference signals of the carrier c, wherein F RS is adjusted over a available frequency range F that is smaller than F c and within F c; - scheduling data transmissions on the carrier within the available frequency range F and - signaling information associated with the configuration of said frequency range F RS to a receiver in the communications system.
A composition containing an immunogenic cell preparation of killed Leptospira bacteria in a citric acid solution, characterised in that the solution comprises 20 mmols of citric acid per litre.
A heat exchanger of the type wherein an upstream to downstream flow of a fluid is directed over its external surface for inducing a transfer of thermal energy between an external fluid and a refrigerant circulating within said heat exchanger, said heat exchanger comprising; a pair of spaced tanks; a pair of slotted headers; a plurality of flow separators within said tanks to induce multiple passes of said refrigerant circulating within said heat exchanger; an inlet tube attached to said one spaced tank; an outlet tube attached to said one spaced tank; a pair of reinforcement plates; a plurality of heat exchange tubes extending between said tanks and in fluid communication therewith; a plurality of flow passages within said tubes having at least one corner having an included angle of less than ninety degrees and formed by a pair of straight or arcuate first side and a second side; and a plurality of convoluted fins positioned in alternating relation between said tubes constrained by said pair of slotted headers and said pair of reinforcement plates, characterized in that said flow passage includes a passage-specific optimal hydraulic diameter "d" determined by the relationship between said optimal hydraulic diameter "d" and the optimal hydraulic diameter "d o " of a baseline circular passage given by the relationship d o = m ̇ Φ μ wherein, d o is the baseline optimal hydraulic diameter of the baseline circular passage cross-sectional area expressed in ft or in m, μ is the dynamic viscosity of a saturated liquid-vapor mixture circulating in said heat exchanger expressed in lb m /ft·hr or in Pa·s, ṁ is the mass flow rate of the refrigerant through the baseline circular passage expressed in lb m /hr or in kg/s, Φ is a dimensionless flow parameter dependent on the dimensionless property parameter, Prandtl number Pr, defined as Pr = μ c p k wherein μ is the dynamic viscosity of a saturated liquid-vapor mixture expressed in lb m /ft·hr or in Pa·s, c p is the isobaric specific heat of the saturated liquid-vapor mixture expressed in Btu/lb m ·°F or in kJ/kg·K, k is the thermal conductivity of the saturated liquid-vapor mixture expressed in Btu/ft·hr·°F or in W/m·K. d o is the baseline optimal hydraulic diameter of the baseline circular passage cross-sectional area expressed in ft or in m, μ is the dynamic viscosity of a saturated liquid-vapor mixture circulating in said heat exchanger expressed in lb m /ft·hr or in Pa·s, ṁ is the mass flow rate of the refrigerant through the baseline circular passage expressed in lb m /hr or in kg/s, Φ is a dimensionless flow parameter dependent on the dimensionless property parameter, Prandtl number Pr, defined as μ is the dynamic viscosity of a saturated liquid-vapor mixture expressed in lb m /ft·hr or in Pa·s, c p is the isobaric specific heat of the saturated liquid-vapor mixture expressed in Btu/lb m ·°F or in kJ/kg·K, k is the thermal conductivity of the saturated liquid-vapor mixture expressed in Btu/ft·hr·°F or in W/m·K.
Method of providing a virtual local data storage for a user device that is connectable to a remote storage server via a network, the method comprising the steps of - initiating a socket connection to the remote storage server, - providing an application interface for storage requests for storing auxiliary data from applications in the user device on the virtual local data storage residing in the remote storage server, and, when a storage request is received, having the auxiliary data stored on the virtual local data storage via the network, characterized in that the method comprises - providing a record carrier with a unique disc identifier that entitles a user to use the virtual local data storage. - initiating a socket connection to the remote storage server, - providing an application interface for storage requests for storing auxiliary data from applications in the user device on the virtual local data storage residing in the remote storage server, - providing a record carrier with a unique disc identifier that entitles a user to use the virtual local data storage.
An apparatus for use in wireless energy transfer to power a medical device, the apparatus comprising: a transmitting assembly configured to transmit electromagnetic energy, the transmitting assembly comprising, a transmitting resonant coil providing a first conductor; and an excitation coil inductively coupled to said transmitting resonant coil; a receiving assembly magnetic resonance coupled to the transmitting assembly, the receiving assembly comprising, a receiving resonant coil providing a second conductor; and a power pick-up coil inductively coupled to said receiving resonant coil; and wherein said first conductor and/or second conductor has a thickness T that is less than or equal to two times a skin depth at the resonant frequency of said transmitting resonant coil and/or receiving resonant coil, characterized by said first conductor and/or second conductor having a width W parallel to an axis about which the coil is wound that is larger than the thickness T. a transmitting assembly configured to transmit electromagnetic energy, the transmitting assembly comprising, a transmitting resonant coil providing a first conductor; and an excitation coil inductively coupled to said transmitting resonant coil; a transmitting resonant coil providing a first conductor; and an excitation coil inductively coupled to said transmitting resonant coil; a receiving assembly magnetic resonance coupled to the transmitting assembly, the receiving assembly comprising, a receiving resonant coil providing a second conductor; and a power pick-up coil inductively coupled to said receiving resonant coil; and a receiving resonant coil providing a second conductor; and a power pick-up coil inductively coupled to said receiving resonant coil; wherein said first conductor and/or second conductor has a thickness T that is less than or equal to two times a skin depth at the resonant frequency of said transmitting resonant coil and/or receiving resonant coil, characterized by said first conductor and/or second conductor having a width W parallel to an axis about which the coil is wound that is larger than the thickness T.
A medical system (100, 400) comprising: - a memory storing machine executable instructions and a network graph (114, 114'), wherein the network graph comprises network nodes and network edges that link the network nodes, wherein at least a portion of the network nodes comprise node specific subject metadata, wherein the network edges comprise configuration metadata, wherein the configuration metadata comprises routing data configured for establishing a communication channel for communicating data between two network nodes of the network graph using a communication device; - a computational system, wherein execution of the machine executable instructions causes the computational system to: - create a new node comprising new subject metadata in the network graph; - search for a closest matching network node selected from the network nodes, wherein the closest matching network node is selected by comparing the new subject metadata to the node specific subject metadata, - construct new network edges for the new node in the network graph, wherein the new network edges comprise a replication of at least a portion of the network edges of the closest matching network node. - a memory storing machine executable instructions and a network graph (114, 114'), wherein the network graph comprises network nodes and network edges that link the network nodes, wherein at least a portion of the network nodes comprise node specific subject metadata, wherein the network edges comprise configuration metadata, wherein the configuration metadata comprises routing data configured for establishing a communication channel for communicating data between two network nodes of the network graph using a communication device; - a computational system, wherein execution of the machine executable instructions causes the computational system to: - create a new node comprising new subject metadata in the network graph; - search for a closest matching network node selected from the network nodes, wherein the closest matching network node is selected by comparing the new subject metadata to the node specific subject metadata, - construct new network edges for the new node in the network graph, wherein the new network edges comprise a replication of at least a portion of the network edges of the closest matching network node. - create a new node comprising new subject metadata in the network graph; - search for a closest matching network node selected from the network nodes, wherein the closest matching network node is selected by comparing the new subject metadata to the node specific subject metadata, - construct new network edges for the new node in the network graph, wherein the new network edges comprise a replication of at least a portion of the network edges of the closest matching network node.
An electronic device comprising: at least one communication circuit configured to wirelessly communicate with a first external audio output device, a second external audio output device, and a wearable device; a display; and at least one processor configured to: receive first heartbeat information from the first external audio output device, second heartbeat information from the second external audio output device, and third heartbeat information from the wearable device by using the at least one communication circuit, determine a master device from among the first external audio output device and the second external audio output device based on similarities between the first heartbeat information, the second heartbeat information and the third heartbeat information, and control the first external audio output device and the second external audio output device by communicating with the determined master device. at least one communication circuit configured to wirelessly communicate with a first external audio output device, a second external audio output device, and a wearable device; a display; and at least one processor configured to: receive first heartbeat information from the first external audio output device, second heartbeat information from the second external audio output device, and third heartbeat information from the wearable device by using the at least one communication circuit, determine a master device from among the first external audio output device and the second external audio output device based on similarities between the first heartbeat information, the second heartbeat information and the third heartbeat information, and control the first external audio output device and the second external audio output device by communicating with the determined master device. receive first heartbeat information from the first external audio output device, second heartbeat information from the second external audio output device, and third heartbeat information from the wearable device by using the at least one communication circuit, determine a master device from among the first external audio output device and the second external audio output device based on similarities between the first heartbeat information, the second heartbeat information and the third heartbeat information, and control the first external audio output device and the second external audio output device by communicating with the determined master device.
Method for filling sausages with a paste-like substance by means of a filling machine, wherein a sensor unit determines at least one parameter that varies differently for different paste-like substances as a function of time, and, depending on the at least one determined parameter, a controller determines whether a measure for one or more wearing parts is necessary, the wearing parts wearing out at different times depending on the different paste-like substances, and if the controller has determined that a measure will be necessary, an acoustic and/or a visual indication takes place, or corresponding data are stored or passed on, for instance, to a central computer or to an external visual or acoustic indicator