mhurhangee/ep-ind-claims huggingface dataset:
A fin-tube heat exchanger comprising: a plurality of fins (1; 15) arrayed parallel to one another to form flow paths of a gas there between; and a heat-transfer tube extending through the plurality of fins (1; 15) to allow a fluid to flow through the heat-transfer tube for heat exchange with the gas; each of the fins (1;15) comprising; a plurality of first inclined portions that incline with respect to a direction of airflow so as to form at least one ridge portion; a plurality of tube-surrounding portions located around the heat-transfer tube that extends through each of the fins (1; 15) at a first position and a second position spaced away from each other in a direction of gravitational force; and a plurality of second inclined portions that incline with respect to the direction of airflow, the second inclined portions connecting the tube-surrounding portions and the first inclined portions together, characterized in that each of the first inclined portions includes a groove portion defined in a surface thereof to connect the second inclined portion at the first position to the second inclined portion at the second position. a plurality of fins (1; 15) arrayed parallel to one another to form flow paths of a gas there between; and a heat-transfer tube extending through the plurality of fins (1; 15) to allow a fluid to flow through the heat-transfer tube for heat exchange with the gas; each of the fins (1;15) comprising; a plurality of first inclined portions that incline with respect to a direction of airflow so as to form at least one ridge portion; a plurality of tube-surrounding portions located around the heat-transfer tube that extends through each of the fins (1; 15) at a first position and a second position spaced away from each other in a direction of gravitational force; and a plurality of second inclined portions that incline with respect to the direction of airflow, the second inclined portions connecting the tube-surrounding portions and the first inclined portions together, a plurality of first inclined portions that incline with respect to a direction of airflow so as to form at least one ridge portion; a plurality of tube-surrounding portions located around the heat-transfer tube that extends through each of the fins (1; 15) at a first position and a second position spaced away from each other in a direction of gravitational force; and a plurality of second inclined portions that incline with respect to the direction of airflow, the second inclined portions connecting the tube-surrounding portions and the first inclined portions together, characterized in that each of the first inclined portions includes a groove portion defined in a surface thereof to connect the second inclined portion at the first position to the second inclined portion at the second position.
Method for operating an electronic wheel unit arranged on a vehicle wheel of a vehicle, the electronic wheel unit comprising: - detecting means (15, 16, 17, 18) for detecting rotation angle positions of the vehicle wheel that are present at certain detection times and - radio transmission means for transmitting a sequence of individual electromagnetic signals that include data representative of the detected rotation angle positions and the associated detection times thereof, characterized in that the detecting means (15, 16, 17, 18) are further used to detect an amount of a wheel acceleration of the vehicle wheel, and an interval of time between the detection times of the rotation angle positions is predefined by the detecting means (15, 16, 17, 18) to be shorter the greater the amount of wheel acceleration. - detecting means (15, 16, 17, 18) for detecting rotation angle positions of the vehicle wheel that are present at certain detection times and - radio transmission means for transmitting a sequence of individual electromagnetic signals that include data representative of the detected rotation angle positions and the associated detection times thereof,
A drill comprising: a tip cutting edge provided at a tip end; and a main cutting edge connected to a rearward of the tip cutting edge, wherein a point angle (α1) of the tip cutting edge is a predetermined acute angle, a point angle (β1, β2) of the main cutting edge decreases from a front end toward a rear end of the main cutting edge, and a point angle (β1) at the front end of the main cutting edge is an acute angle characterized in that the point angle (β1) at the front end of the main cutting edge is greater than the point angle (α1) of the tip cutting edge. a tip cutting edge provided at a tip end; and a main cutting edge connected to a rearward of the tip cutting edge, wherein a point angle (α1) of the tip cutting edge is a predetermined acute angle, a point angle (β1, β2) of the main cutting edge decreases from a front end toward a rear end of the main cutting edge, and a point angle (β1) at the front end of the main cutting edge is an acute angle characterized in that the point angle (β1) at the front end of the main cutting edge is greater than the point angle (α1) of the tip cutting edge.
A terminal device (101 to 116, 201 to 216) to receive command information from a central device (301 to 304, 401 to 404) in a train information management system (600, 600a), the terminal device comprising: a transmission-reception unit (11, 31) to transmit and receive the command information to and from the central device or other terminal device and periodically receive command information from a plurality of central devices; and a control unit (12, 32), characterized in that the control unit (12, 32) is configured: to determine whether or not management information, which is information on a train composition set by a central device that is a transmission source, regarding the received command information, is normal command information, wherein command information to which the values of the train number and the mileage are set is normal command information; and to determine command information to be adopted based on a priority set to the central device that is the transmission source when receiving the normal command information from the plurality of central devices, and wherein the terminal device further comprises a storage unit (13, 33) to store information on the priorities set to the plurality of central devices. a transmission-reception unit (11, 31) to transmit and receive the command information to and from the central device or other terminal device and periodically receive command information from a plurality of central devices; and a control unit (12, 32), characterized in that the control unit (12, 32) is configured: to determine whether or not management information, which is information on a train composition set by a central device that is a transmission source, regarding the received command information, is normal command information, wherein command information to which the values of the train number and the mileage are set is normal command information; and to determine command information to be adopted based on a priority set to the central device that is the transmission source when receiving the normal command information from the plurality of central devices, and to determine whether or not management information, which is information on a train composition set by a central device that is a transmission source, regarding the received command information, is normal command information, wherein command information to which the values of the train number and the mileage are set is normal command information; and to determine command information to be adopted based on a priority set to the central device that is the transmission source when receiving the normal command information from the plurality of central devices, and wherein the terminal device further comprises a storage unit (13, 33) to store information on the priorities set to the plurality of central devices.
An Ethernet frame injection apparatus for injecting frames from a node into a switched Ethernet network, the frame injection apparatus comprising: an injector input and an injector output, respectively coupleable to the switched Ethernet network via at least one of first and second ports; a host transmit input, coupleable to a host device for communicating host frames; a frame memory, to store frames including both network frames and host frames; a receive router, coupled to the first port and selectively routing network frames to one of first and second router outputs, wherein the first router output is coupled to the frame memory; a transmit frame selector, coupled to receive frames from the frame memory and the second router output, and to selectively provide frames to the injector output; an injection state apparatus adapted to automatically determine a first, second and third operational state for the frame injection apparatus, wherein: the first operational state comprises an idle state in which a network frame received at the injector input from the Ethernet switched network is coupled to the injector output via the receive router and the transmit frame selector; the second operational state comprises storing a host frame received at the host transmit input in the frame memory; and the third operational state comprises a transmit state in which the transmit frame selector couples the frame memory to the injector output to transmit a frame stored in the frame memory onto the Ethernet switched network. an injector input and an injector output, respectively coupleable to the switched Ethernet network via at least one of first and second ports; a host transmit input, coupleable to a host device for communicating host frames; a frame memory, to store frames including both network frames and host frames; a receive router, coupled to the first port and selectively routing network frames to one of first and second router outputs, wherein the first router output is coupled to the frame memory; a transmit frame selector, coupled to receive frames from the frame memory and the second router output, and to selectively provide frames to the injector output; an injection state apparatus adapted to automatically determine a first, the first operational state comprises an idle state in which a network frame received at the injector input from the Ethernet switched network is coupled to the injector output via the receive router and the transmit frame selector; the second operational state comprises storing a host frame received at the host transmit input in the frame memory; and the third operational state comprises a transmit state in which the transmit frame selector couples the frame memory to the injector output to transmit a frame stored in the frame memory onto the Ethernet switched network.
A method of making film laminates, the method comprising the steps of (i) coating a film substrate with at least one lamination adhesive; and (ii) laminating the coated film onto a substrate; wherein the lamination adhesive is a two-component, solventless adhesive and comprises (a) a first component comprising at least one acrylic polymer A with anhydride groups which are reactive with primary or secondary amine groups; and (b) a second component comprising at least one compound B with at least two amine groups selected from primary and secondary amine groups; wherein the acrylic polymer A has a weight average molecular weight of from 3000 to 50000, preferably from 14000 to 30000, measured by Gel Permeation Chromatography. wherein the lamination adhesive is free of organic solvents, free of water and free of compounds with isocyanate groups. (i) coating a film substrate with at least one lamination adhesive; and (ii) laminating the coated film onto a substrate; wherein the lamination adhesive is a two-component, solventless adhesive and comprises (a) a first component comprising at least one acrylic polymer A with anhydride groups which are reactive with primary or secondary amine groups; and (b) a second component comprising at least one compound B with at least two amine groups selected from primary and secondary amine groups; wherein the acrylic polymer A has a weight average molecular weight of from 3000 to 50000, preferably from 14000 to 30000, measured by Gel Permeation Chromatography. wherein the lamination adhesive is free of organic solvents, free of water and free of compounds with isocyanate groups. wherein the lamination adhesive is a two-component, solventless adhesive and comprises (a) a first component comprising at least one acrylic polymer A with anhydride groups which are reactive with primary or secondary amine groups; and (b) a second component comprising at least one compound B with at least two amine groups selected from primary and secondary amine groups; (a) a first component comprising at least one acrylic polymer A with anhydride groups which are reactive with primary or secondary amine groups; and (b) a second component comprising at least one compound B with at least two amine groups selected from primary and secondary amine groups; wherein the acrylic polymer A has a weight average molecular weight of from 3000 to 50000, preferably from 14000 to 30000, measured by Gel Permeation Chromatography. wherein the lamination adhesive is free of organic solvents, free of water and free of compounds with isocyanate groups.
Method for longitudinal cross tension of a mooring system, in where a vessel comprises a mooring tensioning arrangement with a moonpool having an through running vertical channel with an upper moonpool opening in proximity to a deck of the vessel, and a bottom moonpool opening open to surrounding sea, a winch located above the moonpool, wherein a first anchor wire pennant runs from the winch, over a stern of the vessel and into the sea, and a second anchor wire pennant runs from the winch, through the moonpool and into the sea, and a wire/chain stopper securing lines in the moonpool, wherein the mooring arrangement is centrally placed and in or close to a centerline of the vessel, said method comprises the steps: - connecting the vessel to a first anchor wire using the first anchor wire pennant, said first anchor wire pennant runs from aft of the vessel to the fist anchor wire, - sailing the vessel to a second anchor wire, while paying out the first anchor wire pennant, - lowering a pick-up line through the moonpool of the vessel for connection to the second anchor wire, and pulling the second anchor wire through the moonpool onto the deck of the vessel, - connecting the second anchor wire to a second anchor wire pennant, - lowering the second anchor wire and the second anchor wire pennant through the moonpool, - paying out the second anchor wire pennant to a predetermined length, - securing the second anchor wire pennant in the wire/chain stopper in the moonpool, and - pulling the vessel to a central location by hauling in the first anchor wire pennant. - connecting the vessel to a first anchor wire using the first anchor wire pennant, said first anchor wire pennant runs from aft of the vessel to the fist anchor wire, - sailing the vessel to a second anchor wire, while paying out the first anchor wire pennant, - lowering a pick-up line through the moonpool of the vessel for connection to the second anchor wire, and pulling the second anchor wire through the moonpool onto the deck of the vessel, - connecting the second anchor wire to a second anchor wire pennant, - lowering the second anchor wire and the second anchor wire pennant through the moonpool, - paying out the second anchor wire pennant to a predetermined length, - securing the second anchor wire pennant in the wire/chain stopper in the moonpool, and - pulling the vessel to a central location by hauling in the first anchor wire pennant.
The use of a urethane (meth)acrylate comprising, as formation components, (a) at least one isocyanate having at least 2 isocyanate functions, (b) at least one polyalkylene oxide polyether having at least 2 hydroxyl functions, (c) at least one hydroxy-functional (meth)acrylate having exactly one hydroxyl function and at least one (meth)acrylate function, (d) at least one compound having at least one isocyanate-reactive group and at least one acid function, (e) optionally at least one compound having at least one isocyanate-reactive group and at least one basic group for neutralization of the acid groups of component (d), at least one monofunctional polyalkylene oxide polyether alcohol having a number-average molecular weight Mn of at least 600 g/mol, optionally at least one monoalcohol having exactly one hydroxyl function and no further functional group beyond that, (g) optionally at least one di- or polyamine, (h) optionally at least one primary or secondary amine (h) for activation of the (meth)acrylate groups in coating compositions. (a) at least one isocyanate having at least 2 isocyanate functions, (b) at least one polyalkylene oxide polyether having at least 2 hydroxyl functions, (c) at least one hydroxy-functional (meth)acrylate having exactly one hydroxyl function and at least one (meth)acrylate function, (d) at least one compound having at least one isocyanate-reactive group and at least one acid function, (e) optionally at least one compound having at least one isocyanate-reactive group and at least one basic group for neutralization of the acid groups of component (d), at least one monofunctional polyalkylene oxide polyether alcohol having a number-average molecular weight Mn of at least 600 g/mol, optionally at least one monoalcohol having exactly one hydroxyl function and no further functional group beyond that, (g) optionally at least one di- or polyamine, (h) optionally at least one primary or secondary amine (h) for activation of the (meth)acrylate groups
A pneumatic lifting table frame, comprising a transverse beam, at least one column, a pressure sensor configured to detect a load of the lifting table frame, a controller configured to receive a signal from the pressure sensor, and an adjustable gas spring assembly configured to drive the column to be lifted or lowered; wherein the adjustable gas spring assembly comprises an adjustable gas spring body, a gas reservoir, a piston rod assembly, and a drive unit, the adjustable gas spring body is connected to the gas reservoir via a gas pipe; the controller is configured to control the drive unit, the adjustable gas spring body is disposed in the column, and the drive unit drives the piston rod assembly to carry out a piston motion in the gas reservoir, wherein the columns comprise a first column and a second column disposed at two ends of the transverse beam, respectively, the adjustable gas spring body is disposed in the first column, and a synchronous lifting transmission mechanism is provided between the first column and the second column and wherein a self-locking gas spring for driving the second column to lift/lower is provided in the second column, the self-locking gas spring comprises a first self-locking pin and a first cable pulling lever that controls the first self-locking pin, a first cable is provided outside the first cable pulling lever, and the other end of the first cable is connected to a first switch.
Security lock for a safe, comprising a lock housing and a lock bolt guided longitudinally displaceably in the lock housing, the lock bolt interacting with a first closing mechanism and a second closing mechanism, the first closing mechanism being a key-operated closing mechanism and the second closing mechanism being an electromotively driven closing mechanism, and comprising a locking mechanism which, in the locking position, blocks a transfer of the lock bolt into an open position displaced into the lock housing, characterized in that the locking mechanism has a locking pin on the lock housing side and two locking levers (25, 26) which interact therewith and are each arranged pivotably on the lock bolt, the locking levers (25, 26) being movement-coupled and one locking lever interacting with the first locking mechanism and the other locking lever interacting with the second locking mechanism.
An intraocular lens designed to be implanted in the ciliary sulcus of the eye and which comprises an optical part on the periphery of which at least two haptic loops are positioned in the form of closed loops positioned symmetrically on either side of the optical part, each loop being formed by at least three segments, a bowed upper segment and two lower segments (2a, 2b) providing the connection between the upper segment and the optical part, said lower segments converging toward the optical part, characterized in that the segments of each loop are connected to each other by sag points (5, 6), in that the two lower segments (2a, 2b) are connected to the optical part of the lens by sag points (3, 4), and in that the length of the upper segment is smaller than the sum of the lengths of the lower segments (2a, 2b) and their separation at their connection to the optical part.
A method of determining the acetabulum center axis of a patient, comprising selecting three rim points (A, B, C) about the acetabulum (13; 14) of the patient, characterized in that the method further comprises determining a first geometric point substantially equidistant from the three rim points (A, B, C); determining a second geometric point displaced outwardly from the first geometric point and substantially equidistant from the three rim points (A, B, C); and creating a line (D-E) intersecting the first geometric point and the second geometric point to provide a line indicative of the acetabulum center axis of the patient.
A method for controlling a prilling bucket in a urea melt prilling process, wherein: an input flow of urea melt is processed by said prilling bucket; the prilling bucket rotates around a vertical axis and vibrates along said axis; the vibration of said bucket is caused by a magnetostrictive device, wherein the method includes that the vibration of the bucket is controlled, as a function of the rate of said input flow, by the following steps: acquisition of a time-varying input signal which represents the time-varying flow rate of urea melt fed to the prilling bucket; generation of a first signal and of a second signal, independently from each other, as a function of said input signal; generation of a third signal, which is a harmonic signal, having a frequency which is modulated by said first signal and a magnitude which is modulated by said second signal, and use of said third signal to drive said magnetostrictive device. an input flow of urea melt is processed by said prilling bucket; the prilling bucket rotates around a vertical axis and vibrates along said axis; the vibration of said bucket is caused by a magnetostrictive device, wherein the method includes that the vibration of the bucket is controlled, as a function of the rate of said input flow, by the following steps: acquisition of a time-varying input signal which represents the time-varying flow rate of urea melt fed to the prilling bucket; generation of a first signal and of a second signal, independently from each other, as a function of said input signal; generation of a third signal, which is a harmonic signal, having a frequency which is modulated by said first signal and a magnitude which is modulated by said second signal, and use of said third signal to drive said magnetostrictive device. acquisition of a time-varying input signal which represents the time-varying flow rate of urea melt fed to the prilling bucket; generation of a first signal and of a second signal, independently from each other, as a function of said input signal; generation of a third signal, which is a harmonic signal, having a frequency which is modulated by said first signal and a magnitude which is modulated by said second signal, and use of said third signal to drive said magnetostrictive device.