mhurhangee/ep-ind-claims huggingface dataset:
An implantable device having a proximal and a distal end and at least one elongate, electrically conductive component arranged therebetween and a contact pole (22, 24) arranged in the region of the distal end of the device for electrically contacting bodily tissue adjacent to the contact pole (22, 24) during operation, wherein the contact pole (22, 24) is electrically connected to the elongate electrically conductive component, characterised in that the elongate electrically conductive component contains a sub-component, which is connected in series with the remaining elongate electrically conductive component and which contains at least one capacitive component, at least one inductive component and at least one magneto-resistive component, which are arranged and configured in such a way that a reduction of a resistivity of the magneto-resistive component leads to a shift of the resonance frequency of the sub-component.
A method for making a knitting stitch in a knitting machine wherein for forming the knitting stitch a needle and a sinker cooperate, the created knitting stitch being moved by a movement of the sinker to a rest position on the sinker, whereby a first wall or first knitting plane is provided on the sinker where the knitting stitch is to be created and a second wall or second knitting plane is also provided on the sinker and defines said rest position, and whereby said first and second walls or first and second knitting planes (10, 11) are positioned at different levels on the sinker, characterized in that the knitting stitch is moved from the first wall or first knitting plane to the second wall or second knitting plane by selective movement of the sinker with respect to the needle such that the axial position of a non-selected needle at one feed remains unvaried during the passage through it.
Internal combustion engine, in particular as a drive engine for a vehicle, comprising an engine braking device (19, 63, 65), wherein the engine braking device has a throttle element which is associated with an exhaust gas section, in particular a throttle valve, for damming an exhaust gas which is emitted by a combustion device, and comprising a measuring device (51; 71; 83) by means of which the exhaust gas pressure can be measured at a defined measuring region of the exhaust gas section upstream of the throttle element as seen in the exhaust gas flow direction, wherein at least one further measuring device (51; 75; 83) is provided, by means of which the exhaust gas pressure can likewise be measured at the defined measuring region in particular in order to realize a redundant exhaust gas pressure measurement, and that the measurement signals which are determined by means of the measuring devices (51; 71, 75; 83) can be transmitted to a controller for controlling the throttle element, wherein a pressure-detecting device, which comprises the measuring devices (51; 71, 75; 83), has a housing in which the measuring devices (51; 71, 75; 83) are arranged, wherein an actuating motor for adjusting the throttle position of the throttle element is also arranged in the housing.
A copper-containing silica glass having copper of from 5 wtppm to 200 wtppm, which emits fluorescence having a peak in a wavelength range of from 520 nm to 580 nm under irradiation of ultraviolet light with a wavelength ranging from 160 nm to 400 nm, characterised in that an internal transmittance per 2.5 mm thickness at a wavelength of 530 nm is 95 % or more.
Heat exchanger comprising a plurality of plates arranged in parallel so as to define a first series of passages for channelling at least one first fluid and a second series of passages for channelling at least one second fluid which is to be brought into a heat-exchanging arrangement with at least said first fluid, a mixer device being arranged in said at least one passage of the first series and comprising: - at least one first channel for the flow of a first phase of the first fluid along a direction of flow (z), - at least one second channel for the flow of a second phase of the first fluid, and - at least one opening fluidically connecting the first channel to the at least one second channel, characterised in that said at least one opening comprises a first portion leading into the at least one first channel, said first portion having a first cross-section, and a second portion arranged between the first portion and the at least one second channel, said second portion having a second cross-section, the first cross-section being higher than the second cross-section. - at least one first channel for the flow of a first phase of the first fluid along a direction of flow (z), - at least one second channel for the flow of a second phase of the first fluid, and - at least one opening fluidically connecting the first channel to the at least one second channel,
A traction battery self-heating control method using a permanent magnet motor, comprising: acquiring a second temperature of the rotor of the permanent magnet motor according to system parameters and a first temperature of the rotor of the permanent magnet motor; wherein the system parameters comprise: a material specific heat capacity of the rotor, a mass of the rotor and a power for heating the rotor in a sampling time interval, the first temperature is a temperature of the rotor at a first sampling time, the second temperature is a temperature of the rotor at a second sampling time, the second sampling time is a current sampling time, and the first sampling time is a previous sampling time of the second sampling time; predicting a third temperature of the rotor according to the first temperature and the second temperature, wherein the third temperature is a temperature of the rotor at a third sampling time, and the third sampling time is a next sampling time of the second sampling time; and stopping self-heating of the traction battery when the third temperature reaches a demagnetization temperature of the rotor. acquiring a second temperature of the rotor of the permanent magnet motor according to system parameters and a first temperature of the rotor of the permanent magnet motor; wherein the system parameters comprise: a material specific heat capacity of the rotor, a mass of the rotor and a power for heating the rotor in a sampling time interval, the first temperature is a temperature of the rotor at a first sampling time, the second temperature is a temperature of the rotor at a second sampling time, the second sampling time is a current sampling time, and the first sampling time is a previous sampling time of the second sampling time; predicting a third temperature of the rotor according to the first temperature and the second temperature, wherein the third temperature is a temperature of the rotor at a third sampling time, and the third sampling time is a next sampling time of the second sampling time; and stopping self-heating of the traction battery when the third temperature reaches a demagnetization temperature of the rotor.
A method for forming a solar panel, the method comprising: adhering at least one tacking pad to a first surface of a first solar panel subassembly; dispensing an adhesive onto one of the first surface, a second surface of a second solar panel subassembly, or both; placing the second surface in physical contact with the at least one tacking pad after the adhering of the at least one tacking pad and after the dispensing of the adhesive, thereby tacking the first and second solar panel subassemblies together; physically contacting the adhesive with the first and second surfaces during the placing wherein, during the placing, a thickness of the adhesive decreases and a surface area of the adhesive increases; and curing the adhesive after the tacking of the first and second solar panel subassemblies together. adhering at least one tacking pad to a first surface of a first solar panel subassembly; dispensing an adhesive onto one of the first surface, a second surface of a second solar panel subassembly, or both; placing the second surface in physical contact with the at least one tacking pad after the adhering of the at least one tacking pad and after the dispensing of the adhesive, thereby tacking the first and second solar panel subassemblies together; physically contacting the adhesive with the first and second surfaces during the placing wherein, during the placing, a thickness of the adhesive decreases and a surface area of the adhesive increases; and curing the adhesive after the tacking of the first and second solar panel subassemblies together.
A composition for an adhesive hydrogel, comprising at least: a polymeric matrix former; water; and a polyhydric alcohol; the polymeric matrix former comprising at least: (a) (meth)acrylic acid, a (meth)acrylic acid derivative or a vinyl derivative having 2 carboxyl groups and 4 or 5 carbon atoms; (b) (meth)acrylamide or a (meth)acrylamide derivative; (c) N-vinyl-2-caprolactam and/or N-vinyl-2-valerolactam; and (d) a cross-linkable monomer, wherein the content percentage of the (b) in the composition for an adhesive hydrogel is 2 to 20% by weight. (a) (meth)acrylic acid, a (meth)acrylic acid derivative or a vinyl derivative having 2 carboxyl groups and 4 or 5 carbon atoms; (b) (meth)acrylamide or a (meth)acrylamide derivative; (c) N-vinyl-2-caprolactam and/or N-vinyl-2-valerolactam; and (d) a cross-linkable monomer, wherein the content percentage of the (b) in the composition for an adhesive hydrogel is 2 to 20% by weight.
Hydraulic rotary leadthrough having a central axis of rotation, having a rotary neck (17, 59) which is guided centrally via a bearing arrangement so as to be rotatable in a receiving housing (12, 51), having a pressure line (18, 59) which extends in the rotary neck (17, 49) and which, starting from a pressure connection at an end side of the housing (12, 51), opens out onto an opposite pressure side of the rotary leadthrough (1, 48), and having a sealing arrangement (26, 54) which is situated axially between the pressure side of the rotary leadthrough (1, 48) and the bearing arrangement, encloses the rotary neck (17, 49) and, with respect to the rotary neck (17, 49), delimits a leakage collecting space (27, 55) which is connected to a collecting line (19, 58) which extends in the rotary neck (17, 49) starting from the connecting space (27, 55) to the end side of the housing (12, 51) that is opposite the pressure side, wherein the pressure line (18, 59) and the collecting line (19, 58) are formed by bores in the rotary neck (17, 49) so as to extend parallel in the rotary neck (17, 49), characterized in that the bearing arrangement and the sealing arrangement are received in mounts (24, 25) which are axially supported on one another.
An LED-based luminaire, comprising: a housing having a light output opening, a LED support area facing said light output opening, and a plurality of diffusely reflective walls (23, 25, 27, 29) extending between said LED support area and said light output opening; a plurality of LEDs adjacent said LED support area, each of said LEDs selectively generating a LED light output having a component emitting directly toward said light output opening; a plurality of blocking optics, each of said blocking optics provided over a single of said LEDs and redirecting at least said component of said LED light output of said single of LEDs toward at least one of said diffusely reflective walls (23, 25, 27, 29); and a diffusing cover lens provided across said light output opening, characterized in that said LEDs including a first longitudinally extending row of LEDs and a neighboring second longitudinally extending row of LEDs, wherein said LEDs of said first longitudinally extending row of LEDs are positionally offset from said LEDs of said second longitudinally extending row of LEDs in a direction along the length of said first and second longitudinally extending rows, wherein each of said LEDs of said first longitudinally extending row is configured to produce a color that is unique from one or more colors produced by any immediately preceding LED and any immediately following LED in the said first longitudinally extending row of said LEDs and unique from any most closely adjacent LED in the said second longitudinally extending adjoining row of LEDs. a housing having a light output opening, a LED support area facing said light output opening, and a plurality of diffusely reflective walls (23, 25, 27, 29) extending between said LED support area and said light output opening; a plurality of LEDs adjacent said LED support area, each of said LEDs selectively generating a LED light output having a component emitting directly toward said light output opening; a plurality of blocking optics, each of said blocking optics provided over a single of said LEDs and redirecting at least said component of said LED light output of said single of LEDs toward at least one of said diffusely reflective walls (23, 25, 27, 29); and a diffusing cover lens provided across said light output opening, characterized in that said LEDs including a first longitudinally extending row of LEDs and a neighboring second longitudinally extending row of LEDs, wherein said LEDs of said first longitudinally extending row of LEDs are positionally offset from said LEDs of said second longitudinally extending row of LEDs in a direction along the length of said first and second longitudinally extending rows, wherein each of said LEDs of said first longitudinally extending row is configured to produce a color that is unique from one or more colors produced by any immediately preceding LED and any immediately following LED in the said first longitudinally extending row of said LEDs and unique from any most closely adjacent LED in the said second longitudinally extending adjoining row of LEDs.
Device for controlling the power transfer, which can be connected between two cores (11, 12) of a direct current network, in which said cores, which are source-charge interconnection nodes, include protective and contact members, placed in different areas of a power distribution system in which the direct current network is installed, which includes: - an electronic power converter comprised of two switching cells (13, 14) mutually interconnected by an inductance, wherein each switching cell consists of two switches, - a module for controlling said converter, which ensures both an controllable direct current power transfer and stabilization of the direct current voltage, wherein the first switching cell forms a voltage-current connection to regulate the direct current at a given voltage, and wherein the second switching cell forms a current-voltage connection to stabilize the direct current voltage of the core non connected or of the core connected, the source of which would have just malfunctioned. - an electronic power converter comprised of two switching cells (13, 14) mutually interconnected by an inductance, wherein each switching cell consists of two switches, - a module for controlling said converter, which ensures both an controllable direct current power transfer and stabilization of the direct current voltage,
A pipe supporting device for use in a construction machine including a machine body (2, 3), an attachment mounted on the machine body (2, 3) pivotally around a horizontal axis, and a hydraulic pipe extending along a length of the attachment, the pipe supporting device comprising: a support portion for supporting the hydraulic pipe along an axis of the hydraulic pipe extending along the length of the attachment; and a weld portion joining the support portion and to be connected with an outer surface of the attachment by fillet welding, wherein the weld portion has a plurality of peripheral surfaces standing on the outer surface of the attachment for the fillet welding, the plurality of peripheral surfaces including: a pair of opposite perpendicular standing surfaces (13a, 13b) extending in a direction substantially perpendicularly intersecting the axis of the hydraulic pipe; characterized in that the plurality of peripheral surfaces further includes a pair of oblique standing surfaces (13c, 13d) extending from respective leading ends of the pair of opposite perpendicular standing surfaces (13a, 13b) to join each other, each of the oblique standing surfaces (13c, 13d) extending in a direction oblique to the axis of the hydraulic pipe and joining the corresponding perpendicular standing surface at an acute angle. a support portion for supporting the hydraulic pipe along an axis of the hydraulic pipe extending along the length of the attachment; and a weld portion joining the support portion and to be connected with an outer surface of the attachment by fillet welding, wherein the weld portion has a plurality of peripheral surfaces standing on the outer surface of the attachment for the fillet welding, the plurality of peripheral surfaces including: a pair of opposite perpendicular standing surfaces (13a, 13b) extending in a direction substantially perpendicularly intersecting the axis of the hydraulic pipe; characterized in that the plurality of peripheral surfaces further includes a pair of oblique standing surfaces (13c, 13d) extending from respective leading ends of the pair of opposite perpendicular standing surfaces (13a, 13b) to join each other, each of the oblique standing surfaces (13c, 13d) extending in a direction oblique to the axis of the hydraulic pipe and joining the corresponding perpendicular standing surface at an acute angle.
Method for optical distance measurement, wherein the method comprises performing several runtime measurements, wherein a runtime measurement comprises transmitting at least one measuring pulse by means of a transmitting unit, reflecting at least one transmitted measuring pulse and receiving at least one reflected measuring pulse by means of a receiving unit, wherein at least one point of each point cloud is obtained as the result of the runtime measurements, wherein the method comprises generating a backscatter curve based on the runtime measurement, wherein the method comprises evaluating the backscatter curve for object detection, wherein the method comprises providing a sensitivity curve for evaluating the backscatter curve, wherein evaluating comprises determining a correlation between the sensitivity curve and the backscatter curve in order to determine by means of the runtime measurements whether a particle cloud is arranged in a measuring range measured by means of the runtime measurements and to assign a particle cloud feature to each of the runtime measurements, wherein the method comprises detecting a particle cloud, wherein the method comprises determining a confidence measure for each runtime measurement taking into account the detection of the particle cloud, wherein the confidence measure for the runtime measurements is each assigned to the corresponding points of the point cloud of the corresponding runtime measurement, wherein the method comprises generating a point cloud comprising points from different runtime measurements. wherein the method comprises performing several runtime measurements, wherein a runtime measurement comprises transmitting at least one measuring pulse by means of a transmitting unit, reflecting at least one transmitted measuring pulse and receiving at least one reflected measuring pulse by means of a receiving unit, wherein at least one point of each point cloud is obtained as the result of the runtime measurements, wherein the method comprises generating a backscatter curve based on the runtime measurement, wherein the method comprises evaluating the backscatter curve for object detection, wherein the method comprises providing a sensitivity curve for evaluating the backscatter curve, wherein evaluating comprises determining a correlation between the sensitivity curve and the backscatter curve in order to determine by means of the runtime measurements whether a particle cloud is arranged in a measuring range measured by means of the runtime measurements and to assign a particle cloud feature to each of the runtime measurements, wherein the method comprises detecting a particle cloud, wherein the method comprises determining a confidence measure for each runtime measurement taking into account the detection of the particle cloud, wherein the confidence measure for the runtime measurements is each assigned to the corresponding points of the point cloud of the corresponding runtime measurement, wherein the method comprises generating a point cloud comprising points from different runtime measurements.
A high-strength hot-dip galvanized steel sheet with a hot-dip galvanized coating on a surface thereof, the high-strength hot-dip galvanized steel sheet having a composition consisting of, by mass %, C: more than 0.10% and less than 0.18%, Si: 0.01 to 1.00%, Mn: 1.5 to 4.0%, P: 0.100% or less, S: 0.020% or less, Al: 0.010 to 0.500%, Cr: 0.010 to 2.000%, Nb: 0.005 to 0.100%, Ti: 0.005 to 0.100%, and B: more than 0.0005% and 0.0030% or less, optionally, by mass %, at least one element selected from Mo: 0.005 to 2.000%, V: 0.005 to 2.000%, Ni: 0.005 to 2.000%, Cu: 0.005 to 2.000%, Ca: 0.001 to 0.005% and REMs: 0.001 to 0.005%, with the balance being Fe and inevitable impurities, wherein the high-strength hot-dip galvanized steel sheet has a microstructure including polygonal ferrite with an area fraction of 0 to 10%, martensite with an area fraction of 15 to 60%, tempered martensite with an area fraction of 20 to 50%, and bainitic ferrite with an area fraction of 20 to 50%, wherein massive martensite, which is martensite including prior-austenite grain boundaries and does not encompass martensitic islands in the bainitic ferrite, the tempered martensite, and the bainitic ferrite each have an average grain size of 15 μm or less, wherein a value obtained by subtracting the area fraction of the tempered martensite from the area fraction of the bainitic ferrite is 20% or less, wherein an area fraction of martensite phase regions which are contiguous only to martensite phase regions with respect to a total area fraction of martensite phase regions is 5% or less, and wherein a value obtained by subtracting a Vickers hardness at a depth of 20 μm from a surface of the steel sheet from a Vickers hardness at a depth of 100 μm from the surface of the steel sheet is 30 or more, wherein the Vickers harness measurement was performed with a load of 50g.
An aircraft having a vertical takeoff and landing mode and a forward flight mode, the aircraft comprising: a fuselage having a forward portion and an aft portion in the forward flight mode, the forward portion including first and second rotor stations (18, 20); a first rotor assembly positioned at the first rotor station; a second rotor assembly positioned at the second rotor station; and a tailboom assembly extending from the aft portion of the fuselage, the tailboom assembly including a plurality of landing members; wherein, in the vertical takeoff and landing mode, the first and second rotor assemblies (22, 24) rotate about the fuselage to provide vertical thrust; and wherein, in the forward flight mode, the first rotor assembly rotates about the fuselage to provide forward thrust and the second rotor assembly is non-rotatable about the fuselage forming wings to provide lift. a fuselage having a forward portion and an aft portion in the forward flight mode, the forward portion including first and second rotor stations (18, 20); a first rotor assembly positioned at the first rotor station; a second rotor assembly positioned at the second rotor station; and a tailboom assembly extending from the aft portion of the fuselage, the tailboom assembly including a plurality of landing members; wherein, in the vertical takeoff and landing mode, the first and second rotor assemblies (22, 24) rotate about the fuselage to provide vertical thrust; and wherein, in the forward flight mode, the first rotor assembly rotates about the fuselage to provide forward thrust and the second rotor assembly is non-rotatable about the fuselage forming wings to provide lift.