mhurhangee/ep-ind-claims huggingface dataset:
A facade element for a facade in modular construction, comprising an element frame, a catch device (2, 20) and an infill, wherein the element frame and the infill can be connected to one another via the catch device (2, 20) and the catch device (2, 20) comprises a first catch means and a second catch means constituted as a catch spring, said second catch means being able to engage in the first catch means, characterized in that the catch spring comprises an infill-side end, which can be inserted into an asymmetrical T-groove of the infill frame, a first spring arm and a second spring arm, which extend from the infill-side end essentially in the plug-in direction, and that the element frame-side end of the first spring arm is constituted as a catch lug, which can be engaged with a projecting edge of the element frame, and that the second spring arm has a curvature and can be brought into contact with a guide edge of the element frame.
A cleaning device comprising a first support member, a second support member, a cleaning pad which is supported by the first and second support members (6, 8) and which is made of a liquid-absorbing material, a lever mechanism for the first and second support members (6, 8), a frame portion, a drying aperture which is in the frame portion and which is defined by four sides of the frame portion, and a handle, and the cleaning device being characterised in that: (i) the first and second support members (6, 8) are pivotable towards each other; and (ii) pulling on the lever mechanism causes the first and second support members (6, 8) to pivot towards each other and be pulled into the drying aperture in the cleaning device; (iii) the first and second support members (6, 8) are pulled into the drying aperture in a direction which is offset from a longitudinal axis of the handle; and (iv) the pulling of the first and second support members (6, 8) into the drying aperture causes sides of the drying aperture to exert a pressure on the first and second support members (6, 8) such that the first and second support members (6, 8) squeeze the cleaning pad so that liquid is able to be removed from the cleaning pad. (i) the first and second support members (6, 8) are pivotable towards each other; and (ii) pulling on the lever mechanism causes the first and second support members (6, 8) to pivot towards each other and be pulled into the drying aperture in the cleaning device; (iii) the first and second support members (6, 8) are pulled into the drying aperture in a direction which is offset from a longitudinal axis of the handle; and (iv) the pulling of the first and second support members (6, 8) into the drying aperture causes sides of the drying aperture to exert a pressure on the first and second support members (6, 8) such that the first and second support members (6, 8) squeeze the cleaning pad so that liquid is able to be removed from the cleaning pad.
A silicon wafer with a diameter of 300 mm, separated from a single crystal grown by the Czochralski method, with an oxygen concentration of 5 x 1017 atoms/cm3 to 6 x 1017 atoms/cm3 and with a radial variation of the oxygen concentration of less than 7%, determined according to (Omax - Omin / Omin) ∗ 100%, where Omax is the maximum and Omin is the minimum oxygen concentration determined over the entire radius of the silicon wafer, wherein the oxygen concentration is determined by FTIR according to SEMI MF951, wherein the silicon wafer is doped with hydrogen and a hydrogen concentration is not less than 3 x 1013 atoms/cm3 and not more than 8 x 1013 atoms/cm3.
Thermal plant with a device for cleaning heat exchange surfaces comprising at least one supply line for a cleaning fluid and at least one fluid distribution device being arranged at one end of the at least one supply line, wherein a) the at least one supply line is designed so that it is on the one hand insertable transversely to the direction of gravity in the heat system and on the other hand its shape is variable; b) the at least one feed line is bendable in a first direction transversely to an expansion axis and is designed rigid in at least one second direction transversely to the expansion axis, wherein the device is arranged such that the second direction substantially corresponds to the direction of gravity; c) the at least one feed line can be guided from outside into inner regions of the heat plant through a corresponding feed opening, wherein means for generating a bend upwards of the at least one feed line outside the thermal plant are provided; d) the at least one feed line within the thermal plant has a substantially straight run; and e) the at least one feed line has at least one predeterminable support section, wherein this support section extends at least over 1.5 m, is designed to be self-supporting and constitutes the substantially straight run of the feed line within the thermal plant. a) the at least one supply line is designed so that it is on the one hand insertable transversely to the direction of gravity in the heat system and on the other hand its shape is variable; b) the at least one feed line is bendable in a first direction transversely to an expansion axis and is designed rigid in at least one second direction transversely to the expansion axis, wherein the device is arranged such that the second direction substantially corresponds to the direction of gravity; c) the at least one feed line can be guided from outside into inner regions of the heat plant through a corresponding feed opening, wherein means for generating a bend upwards of the at least one feed line outside the thermal plant are provided; d) the at least one feed line within the thermal plant has a substantially straight run; and e) the at least one feed line has at least one predeterminable support section, wherein this support section extends at least over 1.5 m, is designed to be self-supporting and constitutes the substantially straight run of the feed line within the thermal plant.
A method of pre-lithiating a negative electrode for a secondary battery, the method comprising: pouring and disperse lithium metal powder, inorganic powder and a binder in a solvent to thereby prepare a mixed solution; and forming a lithium metal-inorganic composite layer on the negative electrode by using the mixed solution, characterized in that a thickness of the lithium metal-inorganic composite layer is 0.5 to 20 μm, and the inorganic powder includes at least one of Al 2 O 3, TiO 2, ZrO 2, SiO 2, SnO 2, CeO 2, MgO, CaO, and Y 2 O 3.
A method for providing identification data of an individual to a service over a mobile communication network using a device of the individual, the device being connectable to the mobile communication network by means of a mobile communication device the device is connected to, wherein the device is a SIM card connected to the mobile communication device registered in the communication network, wherein a code is allocated to the device in the communication network, wherein the code is transmitted to a server providing the service from another device than the mobile communication device connected to the device the code is allocated to, the another device being used by the individual to access the service, wherein identification data included in an identification means of the individual is stored in the device and the identification data is transmitted from the device to the server via the mobile communication network using the registration of the device in the mobile communication network, and wherein the identification data is transmitted to the server upon an identification request received from the server, said identification request being addressed to the device using the code, wherein the transmission of the identification data is allowed upon successful verification of an authorisation feature input into the mobile communication device in response to the identification request.
A scroll compressor, comprising: a casing; a driving motor including a rotor and a stator; a frame fixedly-installed at an inner space of the casing; a fixed scroll fixedly-installed at the frame; an orbiting scroll installed to be movable with respect to the fixed scroll, and coupled to the rotor of the driving motor; and a rotation preventing member disposed between the frame and the orbiting scroll or between the fixed scroll and the orbiting scroll, and configured to prevent a rotation of the orbiting scroll, characterized in that a first guide surface is formed at the frame or the fixed scroll, a second guide surface is formed at the orbiting scroll, a first sliding surface is formed on an outer circumferential surface of the rotation preventing member so as to slidably contact the first guide surface, and a second sliding surface is formed on an inner circumferential surface of the rotation preventing member so as to slidably contact the second guide surface. a casing; a driving motor including a rotor and a stator; a frame fixedly-installed at an inner space of the casing; a fixed scroll fixedly-installed at the frame; an orbiting scroll installed to be movable with respect to the fixed scroll, and coupled to the rotor of the driving motor; and a rotation preventing member disposed between the frame and the orbiting scroll or between the fixed scroll and the orbiting scroll, and configured to prevent a rotation of the orbiting scroll, characterized in that a first guide surface is formed at the frame or the fixed scroll, a second guide surface is formed at the orbiting scroll, a first sliding surface is formed on an outer circumferential surface of the rotation preventing member so as to slidably contact the first guide surface, and a second sliding surface is formed on an inner circumferential surface of the rotation preventing member so as to slidably contact the second guide surface.
Lift installation with - at least one shaft door (4, 4a, 4b, 4c) and - a monitoring device for monitoring movements (O, E) for opening the shaft door (4, 4a, 4b, 4c), characterised in that the monitoring device comprises: - a first, energy-autonomous counting device for counting the movements (O, E), which independently of the intact power supply increment a first count value in the case of one of these movements (O, E), and - a second counting device for counting the movements (O, E), which when the power supply is intact increments a second count value in the case of one of these movements (O, E), and - a comparison circuit which calls up and compares the first and second count values and can generate a signal based on the comparison of the count values. - at least one shaft door (4, 4a, 4b, 4c) and - a monitoring device for monitoring movements (O, E) for opening the shaft door (4, 4a, 4b, 4c), characterised in that the monitoring device comprises: - a first, energy-autonomous counting device for counting the movements (O, E), which independently of the intact power supply increment a first count value in the case of one of these movements (O, E), and - a second counting device for counting the movements (O, E), which when the power supply is intact increments a second count value in the case of one of these movements (O, E), and - a comparison circuit which calls up and compares the first and second count values and can generate a signal based on the comparison of the count values. - a first, energy-autonomous counting device for counting the movements (O, E), which independently of the intact power supply increment a first count value in the case of one of these movements (O, E), and - a second counting device for counting the movements (O, E), which when the power supply is intact increments a second count value in the case of one of these movements (O, E), and - a comparison circuit which calls up and compares the first and second count values and can generate a signal based on the comparison of the count values.
A bioreactor comprising a multiposition magnetic stirred plate on which are placed at least two dual chambers, a top plate fitting the top cap of each dual chamber and at least two independent flow pumps.
Method for transmitting data from a communication network to a user equipment, comprising the following steps: - detecting the reception of a request to obtain data (d UE) transmitted by said user equipment; - monitoring whether a session is established with said user equipment over the communication network after detecting the reception of said request; and - transmitting, if the establishment of a session with said user equipment is not detected before a delay (d) has expired after detecting the reception of said request, at least one signalling message (Sig_Msg (d UE)) containing said data (d UE) to the user equipment. - detecting the reception of a request to obtain data (d UE) transmitted by said user equipment; - monitoring whether a session is established with said user equipment over the communication network after detecting the reception of said request; and - transmitting, if the establishment of a session with said user equipment is not detected before a delay (d) has expired after detecting the reception of said request, at least one signalling message (Sig_Msg (d UE)) containing said data (d UE) to the user equipment.
Method for making a stator of an axial-flux motor, wherein the stator comprises coils, provided with two power-supply terminals (12, 14) located respectively at an opposite end of each coil, the coils being arranged at a constant angular pitch on a circumference, so that the polar axis of the magnetic field generated by them is parallel to the rotation axis of a rotor of the motor, with the steps of (i) taking or producing a rigid element incorporating in its volume a network of electrical conductors so spatially arranged as to geometrically connect separate points of the rigid element, (ii) placing the terminals (12, 14) of the coils near the rigid element, and (iii) electrically connecting the terminals (12, 14) and the electrical conductors to each other, so as to include the coils in an overall electric circuit formed by the electric conductors, wherein, to make the stator, two of said rigid elements are counter-posed for enclosing the ends of the coils, so as to connect two sets of terminals formed by opposite terminals of each coil by means of conductors arranged in a respective rigid element, the electrical conductors of the two rigid elements are spatially arranged so that each coil has one terminal connected with only one electrical conductor present in a rigid element and the other terminal connected with only one electrical conductor present in the other rigid element, wherein, to produce said points, seats are formed in the rigid element to receive a terminal of a coil. with the steps of (i) taking or producing a rigid element incorporating in its volume a network of electrical conductors so spatially arranged as to geometrically connect separate points of the rigid element, (ii) placing the terminals (12, 14) of the coils near the rigid element, and (iii) electrically connecting the terminals (12, 14) and the electrical conductors to each other, so as to include the coils in an overall electric circuit formed by the electric conductors, (i) taking or producing a rigid element incorporating in its volume a network of electrical conductors so spatially arranged as to geometrically connect separate points of the rigid element, (ii) placing the terminals (12, 14) of the coils near the rigid element, and (iii) electrically connecting the terminals (12, 14) and the electrical conductors to each other, so as to include the coils in an overall electric circuit formed by the electric conductors, wherein, to make the stator, two of said rigid elements are counter-posed for enclosing the ends of the coils, so as to connect two sets of terminals formed by opposite terminals of each coil by means of conductors arranged in a respective rigid element, the electrical conductors of the two rigid elements are spatially arranged so that each coil has one terminal connected with only one electrical conductor present in a rigid element and the other terminal connected with only one electrical conductor present in the other rigid element, wherein, to produce said points, seats are formed in the rigid element to receive a terminal of a coil.
A holder for an inhaler article, the holder comprising an air flow passage, characterised in that the holder comprises an inhalation volume estimator (350, 450), the inhalation volume estimator comprising: a turbine (352, 452); an indicator coupled to the turbine for indicating inhalation volume information relating to a volume of an air flow through the air flow passage; and a modifying mechanism coupled to the indicator for resetting or otherwise modifying the inhalation volume information, wherein the turbine is configured to rotate in response to air flow through the air flow passage and alter the inhalation volume information indicated by the indicator, and wherein the modifying mechanism is operable by one or both of engaging the inhaler article with the holder and disengaging the inhaler article from the holder. a turbine (352, 452); an indicator coupled to the turbine for indicating inhalation volume information relating to a volume of an air flow through the air flow passage; and a modifying mechanism coupled to the indicator for resetting or otherwise modifying the inhalation volume information, wherein the turbine is configured to rotate in response to air flow through the air flow passage and alter the inhalation volume information indicated by the indicator, and wherein the modifying mechanism is operable by one or both of engaging the inhaler article with the holder and disengaging the inhaler article from the holder.
A fuel cell comprising - an anode capable of oxidizing a first compound M1 into first ions M (m+) with m being a non-zero integer, - a first electrolyte which is capable of conducting these first ions M (m+), and which is in contact with said anode, - a cathode capable of reducing a second compound N2 into second N (n-) ions with n being a non-zero integer, - a second electrolyte which is capable of conducting these second ions N (n-), and which is in contact with said cathode, - a porous central membrane, one of the faces of which is in contact with said first electrolyte, and the opposite face of which is in contact with said second electrolyte, said fuel cell being characterized in that said first electrolyte, said second electrolyte and said central membrane consist of the same material which is capable of conducting both M (m+) ions and N (n-) ions. - an anode capable of oxidizing a first compound M1 into first ions M (m+) with m being a non-zero integer, - a first electrolyte which is capable of conducting these first ions M (m+), and which is in contact with said anode, - a cathode capable of reducing a second compound N2 into second N (n-) ions with n being a non-zero integer, - a second electrolyte which is capable of conducting these second ions N (n-), and which is in contact with said cathode, - a porous central membrane, one of the faces of which is in contact with said first electrolyte, and the opposite face of which is in contact with said second electrolyte,
A method for performing automatic penetration testing, PT, in a network of an organization having a plurality of end units, the method comprising: providing a PT device having a PT algorithm stored in a memory unit and connecting the PT device to an active network port in said network or providing a virtual PT machine having an embedded PT algorithm and implementing the virtual PT machine onto said network; and performing automated penetration testing, comprising: scanning the network to identify all end units and vulnerabilities in the network; creating possible attack scenarios; attacking the network according to the PT algorithm and based on the attack scenarios; and creating a vulnerability report, wherein the PT algorithm simulates the operation of a real hacker, and wherein overloading the network is prevented, characterized in that attacking the network comprises penetrating a target end unit by first penetrating one or more end units of the plurality of end units, thereby penetrating the target end unit via said one or more end units; and creating the vulnerability report is based on an outcome of a penetration testing process of the target end unit for each attack scenario with automatic imitation of the operation of a hacker. providing a PT device having a PT algorithm stored in a memory unit and connecting the PT device to an active network port in said network or providing a virtual PT machine having an embedded PT algorithm and implementing the virtual PT machine onto said network; and performing automated penetration testing, comprising: scanning the network to identify all end units and vulnerabilities in the network; creating possible attack scenarios; attacking the network according to the PT algorithm and based on the attack scenarios; and creating a vulnerability report, scanning the network to identify all end units and vulnerabilities in the network; creating possible attack scenarios; attacking the network according to the PT algorithm and based on the attack scenarios; and creating a vulnerability report, characterized in that attacking the network comprises penetrating a target end unit by first penetrating one or more end units of the plurality of end units, thereby penetrating the target end unit via said one or more end units; and creating the vulnerability report is based on an outcome of a penetration testing process of the target end unit for each attack scenario with automatic imitation of the operation of a hacker.