mhurhangee/ep-ind-claims huggingface dataset:
Measuring device for detecting damage in an outer skin of a vehicle, in particular of a watercraft, having a sensor element, which comprises a forward conductor which is insulated with respect to the outer skin, and which can be arranged on the outer skin of the vehicle, characterized in that the sensor element is embodied without a return conductor, wherein the forward conductor is embodied in a planar fashion, wherein the forward conductor is arranged between two electrically insulating layers (6, 8), wherein the sensor element is embodied as a three-layered film sensor.
An optical wavelength conversion member comprising a polycrystalline ceramic sintered body containing, as main components, Al 2 O 3 crystal grains and crystal grains of a component represented by formula A 3 B 5 O 12:Ce, wherein: each of A and B of the A 3 B 5 O 12 is at least one element selected from the following element groups: A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and characterized in that the following relations are satisfied: 0 % ≤ X ≤ 25 %, 9 % ≤ Y ≤ 45 %, and 48 % ≤ Z ≤ 90 %, wherein X represents a proportion corresponding to the ratio a/N, Y represents a proportion corresponding to the ratio b/N, and Z represents a proportion corresponding to the ratio c/N, wherein N represents the total number of A 3 B 5 O 12:Ce crystal grains present in a 20 μm square region of a cross section of the ceramic sintered body; a represents the number of A 3 B 5 O 12:Ce crystal grains present in Al 2 O 3 crystal grains; b represents the number of A 3 B 5 O 12:Ce crystal grains each being present at an Al 2 O 3 crystal grain boundary and not in contact with another A 3 B 5 O 12:Ce crystal grain; and c represents the number of A 3 B 5 O 12:Ce crystal grains each being present at an Al 2 O 3 crystal grain boundary and in contact with one or more other A 3 B 5 O 12:Ce crystal grains, wherein the ceramic sintered body contains A 3 B 5 O 12:Ce crystal grains in an amount of up to 30 vol.%. A: Sc, Y, and lanthanoids (except for Ce), and B: Al and Ga; and
A method for connecting an electrical component to an electrical component carrier, wherein the electrical component carrier comprises a base part, electrical strip conductors arranged therein, recesses leading to the strip conductor in the base part and a material layer of the base part at the end of the recess, according to which method at least one, preferably at least two electrical contacts connected to the electrical component are moved into the base part such that each electrical contact is electrically connected to an electrical strip conductor in that the electrical contact is inserted into the recess and pushed or drilled through the material layer and into the strip conductor.
Reactive energy compensator able to be electrically connected to an alternating current electrical network comprising M phase(s), M being an integer greater than or equal to 1, the compensator comprising: - M terminals for connection to the alternating network, - N banks of condenser(s) able to provide reactive energy, N being an integer greater than or equal to 2, - N bidirectional voltage converters connected in parallel with each other and each connected to an individual bank of condenser(s), each converter being able to convert a continuous current into an alternating current comprising M phase(s) in one direction and the alternating current into the continuous current in the other direction, each converter comprising a first and a second input terminals and M output terminal(s), the input terminals (26, 28) being connected to the corresponding bank of condenser(s), each output terminal corresponding to one phase of the alternating current and being connected to a corresponding connection terminal, - a device for balancing the voltage of the N banks of condenser(s), characterized in that the balancing device comprises first means for electrical connection of the first input terminals through passive electrical components (36, 52). - M terminals for connection to the alternating network, - N banks of condenser(s) able to provide reactive energy, N being an integer greater than or equal to 2, - N bidirectional voltage converters connected in parallel with each other and each connected to an individual bank of condenser(s), each converter being able to convert a continuous current into an alternating current comprising M phase(s) in one direction and the alternating current into the continuous current in the other direction, each converter comprising a first and a second input terminals and M output terminal(s), the input terminals (26, 28) being connected to the corresponding bank of condenser(s), each output terminal corresponding to one phase of the alternating current and being connected to a corresponding connection terminal, - a device for balancing the voltage of the N banks of condenser(s), characterized in that the balancing device comprises first means for electrical connection of the first input terminals through passive electrical components (36, 52).
A system comprising: a robotic system configured to apply rotary output motions; and 5 a surgical instrument, for coupling to the robotic system, comprising: an end effector; a tool mounting portion (5200, 6200) with a drive gear configured to interface with said robotic system and utilize one of the rotary output motions to generate actuation motions for actuating portions of said end effector; 10 a first sensor (2002,2006,2008,2012) having an output representing a condition of the end effector; and a second sensor located within the tool mounting portion (5200, 6200) and having an output representing a condition of the drive gear; and a memory device in communication with the first sensor and the second 15 sensor, wherein the memory device is configured to record the output of the first sensor and the output of the second sensor. a robotic system configured to apply rotary output motions; and 5 a surgical instrument, for coupling to the robotic system, comprising: an end effector; a tool mounting portion (5200, 6200) with a drive gear configured to interface with said robotic system and utilize one of the rotary output motions to generate actuation motions for actuating portions of said end effector; 10 a first sensor (2002,2006,2008,2012) having an output representing a condition of the end effector; and a second sensor located within the tool mounting portion (5200, 6200) and having an output representing a condition of the drive gear; and an end effector; a tool mounting portion (5200, 6200) with a drive gear configured to interface with said robotic system and utilize one of the rotary output motions to generate actuation motions for actuating portions of said end effector; 10 a first sensor (2002,2006,2008,2012) having an output representing a condition of the end effector; and a second sensor located within the tool mounting portion (5200, 6200) and having an output representing a condition of the drive gear; and a memory device in communication with the first sensor and the second 15 sensor, wherein the memory device is configured to record the output of the first sensor and the output of the second sensor.
A gas diffusion electrode substrate comprising a carbon sheet and a microporous layer, wherein the carbon sheet is porous, a carbon powder included in the microporous layer has a DBP oil absorption of 70 to 155 ml/100 g, and the microporous layer has (i) an infiltration index (L/W) of 1.10 to 8.00 cm 3 /g, the infiltration index being calculated from an areal weight of the microporous layer and a thickness of the microporous layer, and a thickness of 10 to 100 μm; and/or (ii) a surface roughness of 3.0 to 7.0 μm; and/or (iii) a variety in thickness (deviation) of 10.0 μm or less, wherein the thickness has the SI unit μm and the areal weight has the SI unit g/m 2, wherein the areal weight is determined according to the method described in the description. the carbon sheet is porous, a carbon powder included in the microporous layer has a DBP oil absorption of 70 to 155 ml/100 g, and the microporous layer has (i) an infiltration index (L/W) of 1.10 to 8.00 cm 3 /g, the infiltration index being calculated from an areal weight of the microporous layer and a thickness of the microporous layer, and a thickness of 10 to 100 μm; and/or (ii) a surface roughness of 3.0 to 7.0 μm; and/or (iii) a variety in thickness (deviation) of 10.0 μm or less, wherein the thickness has the SI unit μm and the areal weight has the SI unit g/m 2, wherein the areal weight is determined according to the method described in the description. (i) an infiltration index (L/W) of 1.10 to 8.00 cm 3 /g, the infiltration index being calculated from an areal weight of the microporous layer and a thickness of the microporous layer, and a thickness of 10 to 100 μm; and/or (ii) a surface roughness of 3.0 to 7.0 μm; and/or (iii) a variety in thickness (deviation) of 10.0 μm or less, wherein the thickness has the SI unit μm and the areal weight has the SI unit g/m 2, wherein the areal weight is determined according to the method described in the description.
A method for determining Channel State information, CSI, characterized in that it comprises: a terminal receiving an aperiodic CSI request, determining a parameter X according to a capability of the terminal processing a CSI process and the number of configured CSI processes y at an instant of receiving the CSI request, and updating up to X aperiodic CSI reports according to the parameter X; wherein both y and X are positive integers greater than or equal to 1, and the parameter X is: a total number of CSI reports required to be updated by the terminal in one or more aperiodic CSI requests at the same instant; wherein the capability of processing the CSI process comprises a maximum number P of CSI processes that can be processed by the terminal; wherein the terminal determining the parameter X according to the capability of the terminal processing the CSI process and the number of configured CSI processes y at the instant of receiving the CSI request at least comprises: if P is 3, y is 2 or 3, a value of the parameter X is P; if P is 4, y is 2 or 3, the value of the parameter X is 3; if P is 4, y is 4, the value of the parameter X is P. a terminal receiving an aperiodic CSI request, determining a parameter X according to a capability of the terminal processing a CSI process and the number of configured CSI processes y at an instant of receiving the CSI request, and updating up to X aperiodic CSI reports according to the parameter X; wherein both y and X are positive integers greater than or equal to 1, and the parameter X is: a total number of CSI reports required to be updated by the terminal in one or more aperiodic CSI requests at the same instant; wherein the capability of processing the CSI process comprises a maximum number P of CSI processes that can be processed by the terminal; wherein the terminal determining the parameter X according to the capability of the terminal processing the CSI process and the number of configured CSI processes y at the instant of receiving the CSI request at least comprises: if P is 3, y is 2 or 3, a value of the parameter X is P; if P is 4, y is 2 or 3, the value of the parameter X is 3; if P is 4, y is 4, the value of the parameter X is P. if P is 3, y is 2 or 3, a value of the parameter X is P; if P is 4, y is 2 or 3, the value of the parameter X is 3; if P is 4, y is 4, the value of the parameter X is P.
Blade gripping tool (11a, 11b) of a blade gripping device for gripping a rotor blade, in particular a rotor blade of a wind turbine, which blade gripping tool comprises - a sling and - a preferably automatic sling handover mechanism comprising a sling-conveying element (25, 25') and a sling-receiving element, characterized in that the sling-conveying element (25, 25') is realized to convey a connection means of the sling along a two-dimensional predefined path of travel around a part of the rotor blade towards the sling-receiving element to connect to a receptor (27a, 27a', 27a") of the sling-receiving element. - a sling and - a preferably automatic sling handover mechanism comprising a sling-conveying element (25, 25') and a sling-receiving element, characterized in that the sling-conveying element (25, 25') is realized to convey a connection means of the sling along a two-dimensional predefined path of travel around a part of the rotor blade towards the sling-receiving element to connect to a receptor (27a, 27a', 27a") of the sling-receiving element.
A method for identifying several kinds of small objects that have been labelled by a combination of the presence or measure of label elements of several kinds, comprising the steps of: dispersing a large quantity of the several kinds of small objects in a fluid; transporting said fluid through a measuring passage having at least two measuring points provided at predetermined positions along the measuring passage direction, wherein each of the measuring points is associated with an illumination point; shining light with a predetermined wavelength at the illumination points; receiving electromagnetic waves from passing small objects through the measuring passage at the measuring points; characterized by measuring from said fluid the spatial distribution of the strength of electromagnetic waves along the measuring passage direction, and measuring the temporal fluctuations in the strength of the electromagnetic waves of a wavelength range for each measurement point, by providing a predetermined time difference for the respective measuring points. dispersing a large quantity of the several kinds of small objects in a fluid; transporting said fluid through a measuring passage having at least two measuring points provided at predetermined positions along the measuring passage direction, wherein each of the measuring points is associated with an illumination point; shining light with a predetermined wavelength at the illumination points; receiving electromagnetic waves from passing small objects through the measuring passage at the measuring points; characterized by measuring from said fluid the spatial distribution of the strength of electromagnetic waves along the measuring passage direction, and measuring the temporal fluctuations in the strength of the electromagnetic waves of a wavelength range for each measurement point, by providing a predetermined time difference for the respective measuring points.
Damp course element for placement between a foundation and a superstructure of a building, wherein the superstructure of the building comprises building walls comprised of at least an inner wall and an outer wall, wherein the damp course element comprises a foundation side oriented towards the foundation and a superstructure side oriented towards the superstructure and at least substantially manufactured from insulating material, characterized in that the damp course element is comprised of a repeating pattern of through-holes provided between the foundation side and the superstructure side.
A machining device for machining - preferably sheet- or strip-shaped - workpieces, in particular for welding, cutting or milling, wherein the machining device comprises at least one machining tool and at least one magnetic holding device, in particular clamping device, for temporarily fixing a workpiece preferably in the working area of the machining tool, characterized in that the holding device comprises a holding surface, at least one first permanent magnet and at least one second permanent magnet, wherein the at least one second permanent magnet is rotatably mounted relative to the at least one first permanent magnet about a rotational axis, whereby the pole direction of the second permanent magnet is rotatable relative to the pole direction of the first permanent magnet, wherein the rotational axis of the at least one second permanent magnet is transverse, preferably substantially perpendicular, to the holding surface.
A method for controlling an electric ventilator comprising an electric motor and electronics for controlling the electric motor, the control electronics comprising at least one microcontroller and electronic power means to impart a speed V of rotation to the electric motor, the method comprising the steps of setting a first value V1 of the speed V of rotation of the electric motor; setting a maximum threshold temperature T3 M of the electronic power means; setting a maximum threshold temperature T3 D of the microcontroller; setting a first threshold temperature T1 D of the microcontroller lower than the maximum threshold temperature T3 D of the microcontroller; monitoring a temperature T D of the microcontroller; monitoring a temperature T M of the electronic power means; the method being characterised in that it comprises the steps of setting a first threshold temperature T1 M of the electronic power means lower than the maximum threshold temperature T3 M of the electronic power means; setting a second value V2 of the speed V of rotation of the electric motor lower than the first value V1; preparing a counter of a predetermined time X; activating the counter if the temperature T D of the microcontroller or the temperature T M of the electronic power means exceeds the respective first threshold temperature T1 D, T1 M; reducing the speed V of rotation of the electric motor to the second value V2 if after the predetermined time X, the temperature T D of the microcontroller or the temperature T M of the electronic power means is higher than the respective first threshold temperature T 1D, T1 M wherein the speed V of rotation of the electric motor is changed to zero, that is, the electric motor is stopped, if the temperature T D of the microcontroller or the temperature T M of the electronic power means exceeds the respective maximum threshold temperature T3 D, T3 M.
A foldable bath tub, comprising a bottom board, a panel and a circular basin wall between the bottom board and the panel; both the bottom board and the panel are formed by plastics through a one-shot injection molding process, and the circular basin wall is foldable and formed by thermoplastic elastomer through a two-shot injection molding process; the circular basin wall comprises plurality of annular creases parallel with the bottom board, along which the circular basin wall can be folded toward the bottom board; the panel comprises an annular edge element, and when the bath tub is completely folded the annular edge element is in the same plane as the top of the upper annular creases, said plane being parallel with said bottom board, whereby the annular creases form an alternating wavy zigzag folding pattern, a longitudinal cross section of the circular basin wall being a wavy zigzag line extending along a longitudinal cross section of the bottom board in a longitudinal cross section of the foldable bath tub; the foldable bath tub also comprises a plurality of detachable supporting bars arranged between the panel and the bottom board; the supporting bar is at the outer side of the circular basin wall; when the foldable bath tub is unfolded, the supporting bar supports both the panel and the bottom board; when the foldable bath tub is folded, the supporting bar locates below the panel; said plurality of detachable supporting bars being four supporting bars each of which has a round first end and a round second end; a lower surface of the panel is provided with four upper fixtures which comprises an upper hollow cylinder for accommodating the first end of the supporting bar, and the upper hollow cylinder is provided with a gap for the rotation of the supporting bar; the bottom board is provided with four corresponding lower fixtures which comprises a lower hollow cylinder for accommodating the second end of the supporting bar, and the lower hollow cylinder is provided with a blocking part at an end thereof, wherein the blocking part can be opened by external force; the first end of the supporting bar is inserted into the upper hollow cylinder, and the second end of the supporting bar is inserted into the lower hollow cylinder when the foldable bath tub is unfolded and is pulled out of the lower hollow cylinder when the foldable bath tub is folded.
A multi-functional soft tissue wound protective sleeve, comprising: a waste collection bag including a bottom patch and a surface patch, wherein outer edges of the bottom patch and the surface patch are connected to form a cavity, a surgery through-hole is provided on the bottom patch, and a waste inlet opening is provided on the surface patch; a bottom ring to be inserted into a human body, wherein the bottom ring is configured to push away human tissues surrounding the bottom ring to form a surgery space; a flip ring located above the waste collection bag and having an adjustable distance with the bottom ring, wherein the flip ring is configured to prevent waste from touching a surgical surface; a medical inner membrane connecting the bottom ring to the flip ring and defining a surgery channel to the surgery space; a positioning ring sealed with a hole edge of the surgery through-hole on the bottom patch; and a medical outer membrane connecting the positioning ring to the flip ring, wherein the medical outer membrane guides waste escaping the surgery channel over the flip ring to flow into the waste collection bag. a waste collection bag including a bottom patch and a surface patch, wherein outer edges of the bottom patch and the surface patch are connected to form a cavity, a surgery through-hole is provided on the bottom patch, and a waste inlet opening is provided on the surface patch; a bottom ring to be inserted into a human body, wherein the bottom ring is configured to push away human tissues surrounding the bottom ring to form a surgery space; a flip ring located above the waste collection bag and having an adjustable distance with the bottom ring, wherein the flip ring is configured to prevent waste from touching a surgical surface; a medical inner membrane connecting the bottom ring to the flip ring and defining a surgery channel to the surgery space; a positioning ring sealed with a hole edge of the surgery through-hole on the bottom patch; and a medical outer membrane connecting the positioning ring to the flip ring, wherein the medical outer membrane guides waste escaping the surgery channel over the flip ring to flow into the waste collection bag.
Portable memory medium having a memory area and a memory management system for managing the memory area, wherein different options for accessing the memory area are provided, wherein the portable memory medium receives commands of a terminal device as external commands and is adapted for processing these commands, which comprise at least a data part, wherein the memory management system receives an external configuration command and causes, in response to the received configuration command, an activation of one of at least two different activatable memory configurations, wherein the different memory configurations differ in that, depending on the activated memory configuration, at least one external access command (READ, WRITE, OPEN) for accessing the memory area is transmitted into a different partial memory area characterized in that the configuration command is at least partially implemented in the data part.