mhurhangee/ep-ind-claims huggingface dataset:
A rotor-blade arrangement for a turbo-engine, in particular a gas turbine, having a rotor and a plurality of blades secured thereto that are formed differently according to plan, wherein at least two adjacent blades have shroud bands (12, 22) that are different according to plan, wherein the different shroud bands have different, fluid-remote, radially external surfaces, characterised in that a recess arrangement having at least one through-opening (23A, 23B) is formed in a shroud band of one blade, and no or a different recess arrangement having a different number and/or geometry of through-openings is formed in a shroud band of an adjacent blade.
A mold for manufacturing an optical element, comprising: a base material; and a recessing and protruding layer formed on a surface of the base material, having a recessing and protruding structure; the recessing and protruding structure having a plurality of areas (C1 - Cn) continuously arranged in a positional relationship in which a central point of seven adjacent protrusions is an intersection point of diagonal lines of six vertices of a regular hexagon, and areas, shapes, and crystal orientations of the plurality of areas being random, characterized in that the base material consists of stainless steel, and the recessing and protruding layer is formed by a material containing Ti, Cr, W, Ni. a base material; and a recessing and protruding layer formed on a surface of the base material, having a recessing and protruding structure; the recessing and protruding structure having a plurality of areas (C1 - Cn) continuously arranged in a positional relationship in which a central point of seven adjacent protrusions is an intersection point of diagonal lines of six vertices of a regular hexagon, and areas, shapes, and crystal orientations of the plurality of areas being random, characterized in that the base material consists of stainless steel, and the recessing and protruding layer is formed by a material containing Ti, Cr, W, Ni.
An electronic thermostat comprising: a wax case; and a heater mounted on the wax case and comprising; a hollow tube closed at one end and having the other end sealed by an insulating cap; a heating member disposed inside the tube and generating heat by electrical resistance; and lead wires (3a, 3b) supplying electric power to the heating member; characterized in that the tube is directly inserted into a fastening hole of the wax case through interference fitting such that the heater is mounted on the wax case. a wax case; and a heater mounted on the wax case and comprising; a hollow tube closed at one end and having the other end sealed by an insulating cap; a heating member disposed inside the tube and generating heat by electrical resistance; and lead wires (3a, 3b) supplying electric power to the heating member; characterized in that the tube is directly inserted into a fastening hole of the wax case through interference fitting such that the heater is mounted on the wax case.
A photocurable elastomer composition, comprising: a liquid polymer having a number average molecular weight of 5,000 or more, and containing 80 mass% or more of -[CH 2 C(CH 3) 2]- units; a (meth)acrylate monomer; a photo polymerization initiator, wherein: the mass ratio (:) between the component and the component is 10: 90 to 39: 61. a liquid polymer having a number average molecular weight of 5,000 or more, and containing 80 mass% or more of -[CH 2 C(CH 3) 2]- units; a (meth)acrylate monomer; a photo polymerization initiator, wherein: the mass ratio (:) between the component and the component is 10: 90 to 39: 61. the mass ratio (:) between the component and the component is 10: 90 to 39: 61.
A method for preparing an adhesive composition, using an extruder having at least two rotating screws, successively comprising: - feeding at least one plasticizer into the extruder; - degassing the plasticizer in the extruder; - feeding at least one silylated prepolymer, the silylated prepolymer being fed at a position located downstream in the extruder relative to the position at which the plasticizer is fed and relative to the degassing position of the plasticizer in the extruder, and mixing the latter with the plasticizer in the extruder; and - discharging the mixture from the extruder. - feeding at least one plasticizer into the extruder; - degassing the plasticizer in the extruder; - feeding at least one silylated prepolymer, the silylated prepolymer being fed at a position located downstream in the extruder relative to the position at which the plasticizer is fed and relative to the degassing position of the plasticizer in the extruder, and mixing the latter with the plasticizer in the extruder; and - discharging the mixture from the extruder.
Method of producing pulp bales by forming a pulp web, drying the formed pulp web, slitting and cutting the pulp web into sheets and forming a number of parallel bales of pulp sheets, characterized in that basis weight of the web is measured on-line prior to slitting the web, a calculated weight of the bale is determined, and each one of the formed bales is weighed in a scale and the calculated weight is corrected by the scale weighted weight of the bale, thus determining a corrected weight of the bale, and that the corrected weight value of the bale is used for controlling the process of producing pulp bales.
A system for providing images of a human scalp and associated information for assisting in hair transplant planning, the system comprising support means and at least one camera means selectively connectable to the support means, the camera means and/or the support means being configured for acquiring at least one, preferably a plurality of scale calibrated overview images of a human scalp of a patient's head, preferably from different predefined angles, optical acquisition means, preferably a video-dermatoscope, being configured for acquiring a plurality of microscopic images within different regions of the scalp, a processing unit configured to process and/or analyse image data provided by the camera means and the optical acquisition means, in particular for measuring areas of the human scalp, identify and measure hair in microscopic images and/or quantitatively plan a hair transplant operation, wherein the processing unit comprises a user interface (4a,4b) configured for interacting with a user. support means and at least one camera means selectively connectable to the support means, the camera means and/or the support means being configured for acquiring at least one, preferably a plurality of scale calibrated overview images of a human scalp of a patient's head, preferably from different predefined angles, optical acquisition means, preferably a video-dermatoscope, being configured for acquiring a plurality of microscopic images within different regions of the scalp, a processing unit configured to process and/or analyse image data provided by the camera means and the optical acquisition means, in particular for measuring areas of the human scalp, identify and measure hair in microscopic images and/or quantitatively plan a hair transplant operation, wherein the processing unit comprises a user interface (4a,4b) configured for interacting with a user.
A Controller Area Network, CAN, device, the CAN device comprising: a CAN transmitter connected to two CAN bus terminals (401, 402) of the CAN device; a receiver circuit operably coupled to the two CAN bus terminals (401, 402) of the CAN device; and a controller connected to the CAN transmitter, wherein the controller is configured to: determine whether the CAN device is operating as a transmitter node or a receiver node; detect a transition of the CAN device from a dominant state to a recessive state; and in response to both detecting a transition of the CAN device from the dominant state to the recessive state, and the determination of whether the CAN device is operating as a transmitter node or a receiver node, control an output impedance of the CAN transmitter to be within an impedance value range at the dominant state whilst a differential driver voltage on a CAN bus (104, 304, 404) connected to the CAN device decreases to a predefined voltage. a CAN transmitter connected to two CAN bus terminals (401, 402) of the CAN device; a receiver circuit operably coupled to the two CAN bus terminals (401, 402) of the CAN device; and a controller connected to the CAN transmitter, wherein the controller is configured to: determine whether the CAN device is operating as a transmitter node or a receiver node; detect a transition of the CAN device from a dominant state to a recessive state; and in response to both detecting a transition of the CAN device from the dominant state to the recessive state, and the determination of whether the CAN device is operating as a transmitter node or a receiver node, control an output impedance of the CAN transmitter to be within an impedance value range at the dominant state whilst a differential driver voltage on a CAN bus (104, 304, 404) connected to the CAN device decreases to a predefined voltage. determine whether the CAN device is operating as a transmitter node or a receiver node; detect a transition of the CAN device from a dominant state to a recessive state; and in response to both detecting a transition of the CAN device from the dominant state to the recessive state, and the determination of whether the CAN device is operating as a transmitter node or a receiver node, control an output impedance of the CAN transmitter to be within an impedance value range at the dominant state whilst a differential driver voltage on a CAN bus (104, 304, 404) connected to the CAN device decreases to a predefined voltage.
Damping module for a vehicle seat for damping shock-like vertical movements of the vehicle in the event of pressure waves caused in particular by mines and IEDs, wherein the damping module has a stand which can be connected in a positionally fixed manner to a vehicle and on which a vehicle seat can be mounted, and wherein the damping module has a damping element for damping the vehicle seat, characterized in that a frame is fastened to the stand, the frame having a first support which is movable in height with respect to the frame and is connected to the damping element mounted on the frame, and said frame furthermore having a second support which is movable in height relative to the first support and is suitable for supporting the vehicle seat, wherein the first and second support (70, 110) are connected to each other via a scissors lever mechanism, and in that the first support is additionally resiliently supported in relation to the stand via at least one spring such that lowering of the first supports by an extent A relative to the stand causes the scissors lever mechanism to be pulled in and therefore the vehicle seat to be lowered by an extent B > A, wherein the first support is connected to an intersecting point of two crossed bars (88, 89) of a scissors lever element of the scissors lever mechanism.
System for mounting a heating/cooling element which has a first edge and a second edge opposite the first edge and forms a part of the system, with both being firmly attached to or integral with the heating/cooling element; wherein the system has at least two brackets (1, 2), each with a longitudinal axis which runs through a first bracket end (1a, 2a) and a second bracket end (1b, 2b) of the respective bracket (1, 2), wherein the first bracket end (1a, 2a) has in each case a first bracket formation and the second bracket end (1b, 2b) has in each case a second bracket formation; wherein the first edge has a first edge formation (F1') complementary to the first bracket formation, which may be brought into engagement with the first bracket formation, and the second edge has a second edge formation (F2') complementary to the second bracket formation, which may be brought into engagement with the second bracket formation, wherein the first bracket formation with the complementary first edge formation (F1') of the heating/cooling element may be brought into a pivoting engagement, so that the bracket (1, 2) with its first bracket end (1a, 2a) is pivotable relative to the heating/cooling element within a plane orthogonal to the main plane of the heating/cooling element around a swivel axis and wherein the second bracket formation with the complementary second edge formation (F2') of the heating/cooling element may be brought into a snap-in engagement, so that the bracket (1, 2) with its second bracket end (1b, 2b) may be engaged with the heating/cooling element, characterised in that the second bracket formation has an extension and the second edge has a slide mounted on it, movable along its longitudinal direction, with which the extension may be engaged.
Press for wiping means, comprising a bucket having a bucket wall and an upper dunk opening for dunking a wiping means in a dunking direction directed downward toward a bottom of the bucket, and a pressing device arranged in the bucket for embracing and squeezing out the wiping means of a cleaning system, which comprises a first pressing claw and a second pressing claw which can be pivoted about a claw pivot axis in the direction of the first pressing claw, wherein actuating means being provided which comprise a drive carriage which is arranged in the bucket and can be moved top down as a result of an actuating force, which is coupled to the pressing device in such a way that a movement of the drive carriage presses the first pressing claw and the second pressing claw against one another, characterized in that the first pressing claw and the second pressing claw are arranged on the drive carriage and the bucket has a claw guide which is embodied in such a way that, that during a to down movement of the drive carriage in the direction of the base of the bucket, the first pressing claw and the second pressing claw are automatically moved towards one another.
A method of transitioning a group of optically switchable devices, the method comprising: (a) receiving a command to transition the group of optically switchable devices to an ending optical state, wherein the group comprises a slowest optically switchable device and a faster optically switchable device, wherein the slowest optically switchable device and the faster optically switchable device are different sizes and/or have different switching properties; characterized in that the method further comprises: (b) determining a switching time for the group of optically switchable devices, the switching time being a time required for the slowest optically switchable device to reach the ending optical state; (c) transitioning the slowest optically switchable device to the ending optical state without pausing; and (d) during (c), transitioning the faster optically switchable device to the ending optical state with one or more pauses during transition, wherein the one or more pauses result in approximately matching an optical state of the faster optically switchable device with an optical state of the slowest optically switchable device during (c). (a) receiving a command to transition the group of optically switchable devices to an ending optical state, wherein the group comprises a slowest optically switchable device and a faster optically switchable device, wherein the slowest optically switchable device and the faster optically switchable device are different sizes and/or have different switching properties; (b) determining a switching time for the group of optically switchable devices, the switching time being a time required for the slowest optically switchable device to reach the ending optical state; (c) transitioning the slowest optically switchable device to the ending optical state without pausing; and (d) during (c), transitioning the faster optically switchable device to the ending optical state with one or more pauses during transition, wherein the one or more pauses result in approximately matching an optical state of the faster optically switchable device with an optical state of the slowest optically switchable device during (c).
DC/DC converter for the electrical supply of the electric system and/or propulsion unit of a ship or submarine from a fuel cell with a plurality of individual converters (10a...n), wherein the individual converters (10a...n) - are each DC/DC converters, - are electrically connected in parallel and - respectively have semiconductor switches (30a...d) which are at least partially MOSFETs (30a...d), - are galvanically isolated, wherein the DC/DC converter for the electrical supply furthermore comprises a control system which is designed to use a switching frequency for the semiconductor switches (30a...d) which is greater than 50 kHz, characterised in that each individual converter (10a...n) comprises an output filter, embodied as a low-pass filter and consisting of a separate serial inductor and parallel capacitor, and a current sensing resistor for an output-side current measurement that is connected downstream of the low-pass filter. - are each DC/DC converters, - are electrically connected in parallel and - respectively have semiconductor switches (30a...d) which are at least partially MOSFETs (30a...d), - are galvanically isolated,
Device (700a, 700b, 700c) for wireless transmission of data and/or power between the device and another device of a system, in particular of a patient monitoring system, said device comprising: - a connector comprising a data transmission unit arranged for transmitting data to and/or receiving data from another device (700a, 700b, 700c, 800) of the system having a counterpart connector (701, 801), and a magnetic coupling unit (702, 704) for transmitting power to and/or receiving power from another device (700a, 700b, 700c, 800) of the system having a counterpart connector (701, 801) by use of inductive coupling using a high frequency power signal, - a detection unit for detecting coupling of a counterpart connector of another device of the system with the connector, and - a control unit for using the detection that a counterpart connector of another device of the system has been coupled with the connector as a trigger to determine and/or reset a relative time difference between a clock signal used by the device and a clock signal of the other device using the high frequency power signal of the magnetic coupling unit (702, 704) and of a magnetic coupling unit of the counterpart connector, wherein the detection unit is configured to detect coupling of a counterpart connector by detecting if the strength of magnetic coupling between the magnetic coupling unit and a magnetic coupling unit of the counterpart connector exceeds a magnetic coupling threshold, in particular by detecting impedance, resonance frequency and/or induced voltage for detecting the strength of magnetic coupling, and/or by detecting if the intensity of data received by the data transmission unit from a data transmission unit of the other device exceeds an intensity threshold, in particular by detecting signal intensity and/or antenna impedance of an antenna of the data transmission unit for detecting the intensity of received data. - a connector comprising a data transmission unit arranged for transmitting data to and/or receiving data from another device (700a, 700b, 700c, 800) of the system having a counterpart connector (701, 801), and a magnetic coupling unit (702, 704) for transmitting power to and/or receiving power from another device (700a, 700b, 700c, 800) of the system having a counterpart connector (701, 801) by use of inductive coupling using a high frequency power signal, - a detection unit for detecting coupling of a counterpart connector of another device of the system with the connector, and - a control unit for using the detection that a counterpart connector of another device of the system has been coupled with the connector as a trigger to determine and/or reset a relative time difference between a clock signal used by the device and a clock signal of the other device using the high frequency power signal of the magnetic coupling unit (702, 704) and of a magnetic coupling unit of the counterpart connector,
A loop heat pipe comprising: an evaporator configured to vaporize a working fluid; a condenser configured to condense the working fluid; a liquid pipe that connects the evaporator and the condenser to each other; a vapor pipe that connects the evaporator and the condenser to each other; and a loop-like flow channel (21, 22) that is provided in each of the evaporator, the condenser, the liquid pipe, and the vapor pipe, and through which the working fluid can flow, wherein at least one of the evaporator, the condenser, the liquid pipe, and the vapor pipe comprises a first outer metal layer, a second outer metal layer, and an inner metal layer that is provided between the first outer metal layer and the second outer metal layer, and the inner metal layer comprises a porous body, wherein the porous body comprises: a first bottomed hole formed in one face of the inner metal layer; a second bottomed hole formed in the other face of the inner metal layer; a pore, wherein the first bottomed hole and the second bottomed hole partially communicates with each other through the pore; and characterised by a first column portion provided inside the first bottomed hole, wherein the first column portion is bonded to the first outer metal layer. an evaporator configured to vaporize a working fluid; a condenser configured to condense the working fluid; a liquid pipe that connects the evaporator and the condenser to each other; a vapor pipe that connects the evaporator and the condenser to each other; and a loop-like flow channel (21, 22) that is provided in each of the evaporator, the condenser, the liquid pipe, and the vapor pipe, and through which the working fluid can flow, wherein at least one of the evaporator, the condenser, the liquid pipe, and the vapor pipe comprises a first outer metal layer, a second outer metal layer, and an inner metal layer that is provided between the first outer metal layer and the second outer metal layer, and the inner metal layer comprises a porous body, wherein the porous body comprises: a first bottomed hole formed in one face of the inner metal layer; a second bottomed hole formed in the other face of the inner metal layer; a pore, wherein the first bottomed hole and the second bottomed hole partially communicates with each other through the pore; and characterised by a first column portion provided inside the first bottomed hole, wherein the first column portion is bonded to the first outer metal layer. a first bottomed hole formed in one face of the inner metal layer; a second bottomed hole formed in the other face of the inner metal layer; a pore, wherein the first bottomed hole and the second bottomed hole partially communicates with each other through the pore; and characterised by a first column portion provided inside the first bottomed hole, wherein the first column portion is bonded to the first outer metal layer.