mhurhangee/ep-ind-claims huggingface dataset:
Method for communication on the basis of a wireless motor vehicle communication system interacting in an ad-hoc manner, wherein the communication takes place among road users and between road users and traffic infrastructure, characterized in that a) in the vicinity of a node of traffic routes, particularly T-junctions or intersections of traffic routes such as road junctions or grade crossings, a radio transmission/radio reception device associated with a first road user continuously sends a message to at least one second radio transmission/radio reception device, associated with a device of the traffic infrastructure, that is in a radio coverage area of the first radio transmission/radio reception device, b) the message is sent in a manner such that the received message is taken as a basis for ascertaining a first direction of a change of position of the first road user, c) the messages are taken as a basis for forming a history about ascertained directions, d) a first correlation between the first direction and the history of directions is ascertained, e) a second correlation with the result of the first correlation and a reference lane from predetermined lanes at the node of traffic routes is ascertained, said reference lane being taken as a basis for control of the road users and corresponding to the geographical profile, particularly for initialization of traffic control, f) the first correlation or second correlation is/are taken as a basis for controlling the road users. a) in the vicinity of a node of traffic routes, particularly T-junctions or intersections of traffic routes such as road junctions or grade crossings, a radio transmission/radio reception device associated with a first road user continuously sends a message to at least one second radio transmission/radio reception device, associated with a device of the traffic infrastructure, that is in a radio coverage area of the first radio transmission/radio reception device, b) the message is sent in a manner such that the received message is taken as a basis for ascertaining a first direction of a change of position of the first road user, c) the messages are taken as a basis for forming a history about ascertained directions, d) a first correlation between the first direction and the history of directions is ascertained, e) a second correlation with the result of the first correlation and a reference lane from predetermined lanes at the node of traffic routes is ascertained, said reference lane being taken as a basis for control of the road users and corresponding to the geographical profile, particularly for initialization of traffic control, f) the first correlation or second correlation is/are taken as a basis for controlling the road users.
Method for printing wood material boards, in particular wood fiber material boards, by means of a digital printing process, comprising the steps a) continuously measuring the color values of the wood material boards from at least one first batch and forwarding the color values to a computer program; b) continuously measuring the color values of the wood material boards from at least one further batch and forwarding the color values to the computer program; c) processing the color values of the wood material boards from the at least one first batch and the at least one further batch in the computer program and continuously adapting the color values of the digital print for the at least one first batch and/or at least one further batch; d) printing at least one side of the wood material boards by means of digital printing technology, forming a decorative layer in such a way that no color deviations occur between the printed decorations of the wood material boards from the at least one first batch and each further batch. a) continuously measuring the color values of the wood material boards from at least one first batch and forwarding the color values to a computer program; b) continuously measuring the color values of the wood material boards from at least one further batch and forwarding the color values to the computer program; c) processing the color values of the wood material boards from the at least one first batch and the at least one further batch in the computer program and continuously adapting the color values of the digital print for the at least one first batch and/or at least one further batch; d) printing at least one side of the wood material boards by means of digital printing technology, forming a decorative layer in such a way that no color deviations occur between the printed decorations of the wood material boards from the at least one first batch and each further batch.
Back-pack working implement with a drive motor and a blower driven by the drive motor and delivering a working air flow, with a back carrier comprising a back plate and a base plate, wherein the base plate has a top side facing the blower and the drive motor and an underside remote from the blower and the drive motor, wherein the base plate has at least one through-opening through which the working air is drawn by the blower from the underside through the base plate to the top side of the base plate, characterised in that ribs whose end faces remote from the top side form a locating surface for drawn-in leaves extend at the underside of the base plate, in that at least one intake opening, via which the working air flow is drawn by the blower from the environment through the at least one through-opening, is located on the underside of the base plate, wherein the at least one intake opening lies between the end faces of the ribs in the locating surface and is connected to the at least one through-opening by at least one flow connection located on the side of the locating surface which faces the blower, in that the working implement has an intake area being the sum of the areas of all intake openings and all end faces of ribs with a width of less than 10 mm extending between the intake openings, and in that the intake area amounts to at least 50% of the area of the underside of the base plate.
Electrode assembly for temporary cardioversion and/or temporary stimulation of the heart after open heart surgery comprising: a) a first defibrillation electrode with at least one indifferent pole and with an elastic section, whereby the defibrillation electrode is configured to be positioned over the left atrium in the use position, said defibrillation electrode comprises a fixation member disposed on its distal end and is proximally guided into a protective tube; b) a second defibrillation electrode with at least one indifferent pole and with an elastic section, whereby the defibrillation electrode is configured to be positioned over the right atrium in the use position, said defibrillation electrode comprises a fixation member disposed on its distal end and is proximally guided into a protective tube; and c) a pair of different poles,; whereby the fixation members and are configured to be fixed in the use position on the right and left side within the pericardium or are configured to be anchored to each other at the front of the heart; and whereby the electrical supply cables to the poles are inside the protective tubes and which are both guided into a guide tube which can be slid along its longitudinal axis. a) a first defibrillation electrode with at least one indifferent pole and with an elastic section, whereby the defibrillation electrode is configured to be positioned over the left atrium in the use position, said defibrillation electrode comprises a fixation member disposed on its distal end and is proximally guided into a protective tube; b) a second defibrillation electrode with at least one indifferent pole and with an elastic section, whereby the defibrillation electrode is configured to be positioned over the right atrium in the use position, said defibrillation electrode comprises a fixation member disposed on its distal end and is proximally guided into a protective tube; and c) a pair of different poles,;
A dialysis apparatus comprising: a dialyzer; a dialysate supply device containing a dialysate, the dialysate supply device configured to be in fluid communication with the dialyzer; a solution supply device containing a conductivity-testing solution 10, the solution supply device configured to be in fluid communication with the dialyzer; the dialyzer adapted to place the conductivity-testing solution in communication with blood of a subject, wherein a concentration of at least one electrically conductive solute in the conductivity-testing solution, prior to 15 being placed in communication with the blood of the subject, is substantially equal to a concentration of the at least one electrically conductive solute in the blood of the subject; one or more electrical conductivity detectors (220, 225) arranged to measure a conductivity of the conductivity-testing solution passing through 20 the dialyzer; and a control unit configured to determine a concentration of sodium in the blood of the subject as a function of the measured conductivity of the conductivity-testing solution and control preparation of dialysate to include a concentration of sodium that is substantially equal to the determined 25 concentration of sodium in the blood. a dialyzer; a dialysate supply device containing a dialysate, the dialysate supply device configured to be in fluid communication with the dialyzer; a solution supply device containing a conductivity-testing solution 10, the solution supply device configured to be in fluid communication with the dialyzer; the dialyzer adapted to place the conductivity-testing solution in communication with blood of a subject, wherein a concentration of at least one electrically conductive solute in the conductivity-testing solution, prior to 15 being placed in communication with the blood of the subject, is substantially equal to a concentration of the at least one electrically conductive solute in the blood of the subject; one or more electrical conductivity detectors (220, 225) arranged to measure a conductivity of the conductivity-testing solution passing through 20 the dialyzer; and a control unit configured to determine a concentration of sodium in the blood of the subject as a function of the measured conductivity of the conductivity-testing solution and control preparation of dialysate to include a concentration of sodium that is substantially equal to the determined 25 concentration of sodium in the blood.
A catheter or a catheter portion carrying an implant and the implant; the implant being detachably fixed or crimped on a portion or an outer surface of the catheter for being delivered to an implantation site, the implant having a longitudinal axis and having a radial direction perpendicular to the longitudinal axis, wherein the implant comprises: - a first ring-shaped structural element having a first portion and a second ring-shaped structural element having a second portion, wherein the first structural element and/or the second structural element is/are (a) guiding structure(s) for guiding strings (15a, 15b) for amending the diameter of the implant within a part of a body vessel or a part of the patient's heart; - one or more interconnecting elements arranged between the first and the second structural elements, the one or more interconnecting elements having a third portion, wherein the first structural element and/or the second structural element, has at least a fourth portion located less medial as regards the longitudinal axis than the third portion of the one or more interconnecting elements, wherein the first and/or the second portions (31, 33) are located more medial as regards the longitudinal axis than the third portion of the one or more interconnecting elements; - a sleeve covering the implant; characterized in that - a first gap remains between one, more or all of the interconnecting elements and an outer surface of the catheter, where the implant is in a crimped state on the catheter or in a delivery state of the implant on the catheter; and - a second gap remains between one, more or all of the interconnecting elements and an inner surface of the sleeve covering the implant, where the implant is in a crimped state on the catheter.. - a first ring-shaped structural element having a first portion and a second ring-shaped structural element having a second portion, wherein the first structural element and/or the second structural element is/are (a) guiding structure(s) for guiding strings (15a, 15b) for amending the diameter of the implant within a part of a body vessel or a part of the patient's heart; - one or more interconnecting elements arranged between the first and the second structural elements, the one or more interconnecting elements having a third portion, wherein the first structural element and/or the second structural element, has at least a fourth portion located less medial as regards the longitudinal axis than the third portion of the one or more interconnecting elements, wherein the first and/or the second portions (31, 33) are located more medial as regards the longitudinal axis than the third portion of the one or more interconnecting elements; - a sleeve covering the implant; - a first gap remains between one, more or all of the interconnecting elements and an outer surface of the catheter, where the implant is in a crimped state on the catheter or in a delivery state of the implant on the catheter; and - a second gap remains between one, more or all of the interconnecting elements and an inner surface of the sleeve covering the implant, where the implant is in a crimped state on the catheter..
A solid phase micro-extraction (SPME) device comprising a filament, a filament extension mechanism and a locking mechanism (80, 83, 87, 88), wherein the locking mechanism prevents the SPME device from being removed from an instrument to which it is engaged while the filament is in an extended configuration, characterized in that the locking mechanism is automatically activated upon extension of the filament.
An electrode for a cell, comprising: a resin current collector being planate and containing a resin and an electrically conductive filler; and an electrode active material layer (13,15) containing electrode active material particles disposed on at least one surface side of the resin current collector; the resin current collector comprising an electrically conductive layer including a configuration with recesses and projections on a surface side of the resin current collector, the surface side facing the electrode active material layer (13,15); wherein the configuration with recesses and projections satisfies the relationship specified by Formula: h / tan θ < D in which h is an average height of the configuration with recesses and projections obtained by using electron scanning microscopy, 0 is an average inclination angle of the configuration with recesses and projections obtained by using electron scanning microscopy, and D is an average particle diameter of the electrode active material particles obtained by using electron scanning microscopy; and wherein the electrode active material particles are not adhered to each other with binders. a resin current collector being planate and containing a resin and an electrically conductive filler; and an electrode active material layer (13,15) containing electrode active material particles disposed on at least one surface side of the resin current collector; the resin current collector comprising an electrically conductive layer including a configuration with recesses and projections on a surface side of the resin current collector, the surface side facing the electrode active material layer (13,15); wherein the configuration with recesses and projections satisfies the relationship specified by Formula: h / tan θ < D in which h is an average height of the configuration with recesses and projections obtained by using electron scanning microscopy, 0 is an average inclination angle of the configuration with recesses and projections obtained by using electron scanning microscopy, and D is an average particle diameter of the electrode active material particles obtained by using electron scanning microscopy; and wherein the electrode active material particles are not adhered to each other with binders.
A position determining apparatus comprising: magnetic detector means for causing magnetic flux to be directed through the surface of an object and for detecting variations in magnetic flux caused by at least one sub-surface or surface feature of the object; and optical detector means for tracking motion of the apparatus relative to at least one surface feature of the object; drive means (6, 8) for driving the apparatus across the surface of the object; and control means for controlling the drive means in response to data provided by the magnetic detector means representing sub-surface or surface features of the object, and in response to data provided by the optical detector means. magnetic detector means for causing magnetic flux to be directed through the surface of an object and for detecting variations in magnetic flux caused by at least one sub-surface or surface feature of the object; and optical detector means for tracking motion of the apparatus relative to at least one surface feature of the object; drive means (6, 8) for driving the apparatus across the surface of the object; and control means for controlling the drive means in response to data provided by the magnetic detector means representing sub-surface or surface features of the object, and in response to data provided by the optical detector means.
An EMV-Connector for connecting a shielded cable having preferably a plurality of wires, said EMV-Connector comprising the following: a) a metal housing forming an inner space which extends from a plug-in opening at the plug-in side to a cable connection opening at the cable side; b) an insulator body located in said housing adjacent to the plug-in opening suitable to receive the contact elements provided at the ends of the cable wires; c) a clamping cage located in said housing adjacent to the cable connection opening, said clamping cage being adapted to receive the shielded cable in its inner space; d) a spacing element abutting at the insulating body at the plug-in side, said spacing element extends with its cable-side end to the clamping cage, and e) a contact disc providing a shielding connection, said contact disc being in electrical touching contact with the cable shield and the housing; wherein the spacing element abuts with its cable-side end at the contact disc characterized in that the cable-side end of the spacing element comprises a disc receiving means for the contact disc and presses against the contact disc; and that the spacing element is adapted to press the cable shield against the contact disc which in turn abuts on the clamping cage. a) a metal housing forming an inner space which extends from a plug-in opening at the plug-in side to a cable connection opening at the cable side; b) an insulator body located in said housing adjacent to the plug-in opening suitable to receive the contact elements provided at the ends of the cable wires; c) a clamping cage located in said housing adjacent to the cable connection opening, said clamping cage being adapted to receive the shielded cable in its inner space; d) a spacing element abutting at the insulating body at the plug-in side, said spacing element extends with its cable-side end to the clamping cage, and e) a contact disc providing a shielding connection, said contact disc being in electrical touching contact with the cable shield and the housing;
A light emitting diode comprising: a sub-mount substrate comprising a conductive substrate and electrode materials, the electrode materials being disposed on upper and lower surfaces of the conductive substrate respectively; a bonding layer on the sub-mount substrate; an under bump metallisation layer on the bonding layer, the UBM layer having a multi-layer structure; a first electrode on the UBM layer; a reflective layer between the UBM layer and the first electrode, wherein the reflective layer contacts the UBM layer; a first conductivity-type semiconductor layer on the first electrode; an active layer on the first conductivity-type semiconductor layer; a second conductivity-type semiconductor layer on the active layer, the second conductivity-type semiconductor layer comprising a light extraction pattern, wherein the light extraction pattern comprises disorderly distributed grooves in a light-output surface of the second conductivity-type semiconductor layer; a second electrode on the light extraction pattern of the second conductivity-type semiconductor layer, the second electrode directly contacting the light extraction pattern. a sub-mount substrate comprising a conductive substrate and electrode materials, the electrode materials being disposed on upper and lower surfaces of the conductive substrate respectively; a bonding layer on the sub-mount substrate; an under bump metallisation layer on the bonding layer, the UBM layer having a multi-layer structure; a first electrode on the UBM layer; a reflective layer between the UBM layer and the first electrode, wherein the reflective layer contacts the UBM layer; a first conductivity-type semiconductor layer on the first electrode; an active layer on the first conductivity-type semiconductor layer; a second conductivity-type semiconductor layer on the active layer, the second conductivity-type semiconductor layer comprising a light extraction pattern, wherein the light extraction pattern comprises disorderly distributed grooves in a light-output surface of the second conductivity-type semiconductor layer; a second electrode on the light extraction pattern of the second conductivity-type semiconductor layer, the second electrode directly contacting the light extraction pattern.
Method for treating components with a liquid, comprising the steps: - providing a splash guard in a dip tank filled with the liquid, - dipping of components into the liquid, - moving the components out of the liquid, - moving the splash guard relative to the dip tank into a centrifuging position surrounding the components, and - rotating the components within the splash guard, and - moving the splash guard relative to the dip tank into a dipping position. - providing a splash guard in a dip tank filled with the liquid, - dipping of components into the liquid, - moving the components out of the liquid, - moving the splash guard relative to the dip tank into a centrifuging position surrounding the components, and - rotating the components within the splash guard, and - moving the splash guard relative to the dip tank into a dipping position.