mhurhangee/ep-ind-claims huggingface dataset:
Dust bag for a vacuum cleaner, comprising - a collection chamber enclosed by a flexible cover, and - an inflow opening arranged in the cover, the cover being provided with a plurality of perforations, such that a suction air flow, by means of which dirt particles can be sucked through the inflow opening into the collection chamber, can escape through the cover from the collection chamber, the perforations having such a small diameter that at least one predominant portion of the dirt particles are prevented from passing through the perforations, characterised by at least one spacer element which is arranged on the cover and, starting from an outer skirt surface of the cover, extends in a direction facing away from the cover, such that, when the dust bag is installed in a dust chamber of the vacuum cleaner, the cover can be held at least in regions spaced apart from a wall of the dust chamber by means of the action of the spacer element, the spacer element being designed so as to be deformable in such a way that it is suitable for locally supporting the cover of the dust bag when it is in an empty state, such that the cover can be held, by means of the spacer element, at a distance from a contact surface in an action region of the spacer element and, when the dust bag is in a full state, it being possible for the spacer element to be deformable in such a way that the distance of the cover in the action region of the spacer element is reduced such that the cover of the dust bag rests against the associated wall of the dust chamber of the vacuum cleaner. - a collection chamber enclosed by a flexible cover, and - an inflow opening arranged in the cover, the cover being provided with a plurality of perforations, such that a suction air flow, by means of which dirt particles can be sucked through the inflow opening into the collection chamber, can escape through the cover from the collection chamber, the perforations having such a small diameter that at least one predominant portion of the dirt particles are prevented from passing through the perforations, characterised by at least one spacer element which is arranged on the cover and, starting from an outer skirt surface of the cover, extends in a direction facing away from the cover, such that, when the dust bag is installed in a dust chamber of the vacuum cleaner, the cover can be held at least in regions spaced apart from a wall of the dust chamber by means of the action of the spacer element, the spacer element being designed so as to be deformable in such a way that it is suitable for locally supporting the cover of the dust bag when it is in an empty state, such that the cover can be held, by means of the spacer element, at a distance from a contact surface in an action region of the spacer element and, when the dust bag is in a full state, it being possible for the spacer element to be deformable in such a way that the distance of the cover in the action region of the spacer element is reduced such that the cover of the dust bag rests against the associated wall of the dust chamber of the vacuum cleaner.
A fusion protein comprising: a) an antibody; and b) an AD (anchoring domain) moiety from an AKAP protein attached to the C-terminal end of each light chain of the antibody. a) an antibody; and b) an AD (anchoring domain) moiety from an AKAP protein attached to the C-terminal end of each light chain of the antibody.
A device for connection between a strip line and coaxial cable, comprising; a printed circuit board comprising a strip line, a top coupling area and a bottom coupling area, a coaxial cable, including an inner conductor and an outer conductor, the inner conductor electrically connected to the stripline and the outer conductor formed by a braid soldered to the top coupling area, a cover top and a cover bottom respectively located over and under the printed circuit board, wherein the cover top is capacitively coupled through a first insulating layer to the top coupling area and the cover bottom is capacitively coupled through a second insulating layer to the bottom coupling area and the cover top is in contact with the first insulating layer on one side of the printed circuit board and the cover bottom is in contact with the second insulating layer on the other side of the printed circuit board.
A communication method, comprising: receiving, by a first network device, first state information from at least one second network device, wherein the first network device corresponds to a first base station, the at least one second network device corresponds to at least one second base station different from the first base station, the first state information is used to indicate whether the second network device is capable of providing a service in a next state; receiving, by the first network device, third state information of the at least one second network device, wherein the third state information indicates a current state of the second network device and comprises user state information corresponding to at least a portion of a plurality of beamforming weight directions of the second network device; and determining, by the first network device based on at least the first state information and the third state information, a network topology obtained after the first network device and the at least one second network device in the next state are networked. receiving, by a first network device, first state information from at least one second network device, wherein the first network device corresponds to a first base station, the at least one second network device corresponds to at least one second base station different from the first base station, the first state information is used to indicate whether the second network device is capable of providing a service in a next state; receiving, by the first network device, third state information of the at least one second network device, wherein the third state information indicates a current state of the second network device and comprises user state information corresponding to at least a portion of a plurality of beamforming weight directions of the second network device; and determining, by the first network device based on at least the first state information and the third state information, a network topology obtained after the first network device and the at least one second network device in the next state are networked.
A microelectronic device, comprising: a substrate; a magnetic sensor component; and magnetizable structural features (110, 116) comprising bond pads containing magnetizable material, separate from the magnetic sensor component, each magnetizable structural feature (110, 116) having a magnetic moment, wherein the magnetic moments of the magnetizable structural features (110, 116) are aligned parallel to each other. a substrate; a magnetic sensor component; and magnetizable structural features (110, 116) comprising bond pads containing magnetizable material, separate from the magnetic sensor component, each magnetizable structural feature (110, 116) having a magnetic moment, wherein the magnetic moments of the magnetizable structural features (110, 116) are aligned parallel to each other.
A method of milling ball races which are of an approximately elliptical profile which has a first semi-axis (a) extending substantially perpendicularly to the base of the ball race and a second semi-axis (b) extending perpendicularly to the first semi-axis (a) and perpendicularly to the longitudinal direction of the ball race, wherein a side milling cutter is used to produce the ball race, the peripheral cutting edges of which produce the elliptical profile of the ball race, wherein the cutting edges (12, 13) of the side milling cutter in a section containing the axis of the milling cutter are also of an elliptical profile whose first semi-axis (a') extends perpendicularly to the milling cutter axis and whose second semi-axis (b') extends parallel to the milling cutter axis, characterized in that the ratio (b'/a') of the second semi-axis b' relative to the first semi-axis a' of the cutting edges (12, 13) is greater than the ratio (b/a) of the second semi-axis (b) relative to the first semi-axis (a) in the case of the ball race to be produced, wherein the axis of the side milling cutter in projection on to the portion of the ball race, disposed with the cutting edges (12, 13) of the milling cutter, includes a setting angle different from 0° with the second semi-axis (b) of the ball race profile.
A method for identifying the existence of a floating voltage failure in a cell voltage measurement circuit, wherein the cell voltage measurement circuit is electrically coupled to at least one electrochemical cell (201, 306) of a battery system and to a cell discharge circuit, which is electrically coupled to the at least one electrochemical cell (201, 306), the method characterized by comprising the steps of: - measuring the voltage of the at least one electrochemical cell (201, 306) before activation of the cell discharge circuit using the cell voltage measurement circuit; - activating the cell discharge circuit to at least partially discharge the at least one electrochemical cell (201, 306); - measuring the voltage of the at least one cell (201, 306) after activation of the cell discharge circuit; - comparing the voltage measured before activation of the cell discharge circuit to the voltage after activation of the cell discharge circuit; and - based upon the comparison result determine the existence of a floating voltage failure in the cell voltage measurement circuit of the at least one electrochemical cell (201, 306), wherein the floating voltage failure is determined in case the voltage before activation of the cell discharge circuit is equal to the voltage after activation of the cell discharge circuit. - measuring the voltage of the at least one electrochemical cell (201, 306) before activation of the cell discharge circuit using the cell voltage measurement circuit; - activating the cell discharge circuit to at least partially discharge the at least one electrochemical cell (201, 306); - measuring the voltage of the at least one cell (201, 306) after activation of the cell discharge circuit; - comparing the voltage measured before activation of the cell discharge circuit to the voltage after activation of the cell discharge circuit; and - based upon the comparison result determine the existence of a floating voltage failure in the cell voltage measurement circuit of the at least one electrochemical cell (201, 306),
A build plate of an additive manufacturing apparatus comprising: a surface that defines at least one threaded opening configured for disposal of a threaded proximal portion of a screw shaft, the proximal portion being formed by a first manufacturing method and defining a distal face, and the proximal portion being connectable with the surface via threaded engagement in a configuration to orient the distal face for forming a distal portion of the screw shaft thereon by a second manufacturing method that includes an additive manufacturing apparatus. a surface that defines at least one threaded opening configured for disposal of a threaded proximal portion of a screw shaft, the proximal portion being formed by a first manufacturing method and defining a distal face, and the proximal portion being connectable with the surface via threaded engagement in a configuration to orient the distal face for forming a distal portion of the screw shaft thereon by a second manufacturing method that includes an additive manufacturing apparatus.
An assembly comprising supports and a device for the microbiological analysis of said supports, wherein said supports are adapted to contain microorganisms marked by a fluorophore agent, said supports including one support on which said microorganisms are present, said agent being adapted, on contact with said microorganisms, to absorb light energy with an absorption spectrum having a crest at a predetermined absorption wavelength (λ 2) and to release that energy by emitting fluorescent light with an emission spectrum having a crest at a predetermined emission wavelength (λ 3) distinct from said absorption wavelength (λ 2), said device comprising illuminating means adapted to illuminate said one support in order for said marked microorganisms to emit, in response to the excitation light emitted by those illuminating means, light with said emission spectrum; characterized in that the spectrum of the excitation light coming from the illuminating means comprises a crest at a predetermined excitation wavelength (λ 1) distinct from said absorption (λ 2) and emission (λ 3) wavelengths of said fluorophore agent, such that said absorption wavelength (λ 2) is situated between said excitation (λ 1) and emission (λ 3) wavelengths with a predetermined difference between the excitation (λ 1) and absorption (λ 2) wavelengths, by virtue of which it is made easy to discriminate the light emitted by said fluorophore agent of said marked microorganisms present on said one support from the light coming from the illuminating means; and in that the illuminating means have non-negligible spectral dispersion and there is no input filter between the illuminating means and said one support.
A gas turbine engine having a longitudinal axis and comprising: an on-wing portion including: a compressor section; a combustor in fluid communication with the compressor section; and a turbine section in fluid communication with the combustor; a fan drive gear system module; and a connection assembly (96;196) for securing the fan drive gear system module within the gas turbine engine; characterised in that: the connection assembly comprises first and second members (106,110;210) removably secured to one another by third fasteners (114;214) which extend radially with respect to the longitudinal axis, wherein the first members are connected to the on-wing portion of the gas turbine engine, and the second members (110;210) are connected to the fan drive gear system module, the first and second members respectively include first and second brackets (106,110;210), the first brackets are secured to the on-wing portion of the gas turbine engine by a first set of axially oriented fasteners (108;208), and the second brackets (110, 210) are secured to the fan drive gear system module by a second set of axially oriented fasteners, and the first and second members (106,110;210) include complementary shaped mating contoured surfaces (126,128) configured to align the fan drive gear system module with respect to said on-wing portion of the gas turbine engine. an on-wing portion including: a compressor section; a combustor in fluid communication with the compressor section; and a turbine section in fluid communication with the combustor; a compressor section; a combustor in fluid communication with the compressor section; and a turbine section in fluid communication with the combustor; a fan drive gear system module; and a connection assembly (96;196) for securing the fan drive gear system module within the gas turbine engine; the connection assembly comprises first and second members (106,110;210) removably secured to one another by third fasteners (114;214) which extend radially with respect to the longitudinal axis, wherein the first members are connected to the on-wing portion of the gas turbine engine, and the second members (110;210) are connected to the fan drive gear system module, the first and second members respectively include first and second brackets (106,110;210), the first brackets are secured to the on-wing portion of the gas turbine engine by a first set of axially oriented fasteners (108;208), and the second brackets (110, 210) are secured to the fan drive gear system module by a second set of axially oriented fasteners, and the first and second members (106,110;210) include complementary shaped mating contoured surfaces (126,128) configured to align the fan drive gear system module with respect to said on-wing portion of the gas turbine engine.
A method of deriving a seed position of a subscriber station in a wireless communication system, comprising: receiving an overhead message from the wireless communication system; and deriving the seed position of the subscriber station from a parameter in the overhead message, characterized in that said step of deriving comprises: deriving a first position estimate of the subscriber station from the parameter; attempting to derive a second position estimate of the subscriber station; setting the seed position of the subscriber station to the first position estimate if the second position estimate is unavailable; setting the seed position of the subscriber station to the first position estimate if the second position estimate has a higher position uncertainty than the first position estimate; and setting the seed position of the subscriber station to the second position estimate if the second position estimate has a lower position uncertainty than the first position estimate. receiving an overhead message from the wireless communication system; and deriving the seed position of the subscriber station from a parameter in the overhead message, characterized in that said step of deriving comprises: deriving a first position estimate of the subscriber station from the parameter; attempting to derive a second position estimate of the subscriber station; setting the seed position of the subscriber station to the first position estimate if the second position estimate is unavailable; setting the seed position of the subscriber station to the first position estimate if the second position estimate has a higher position uncertainty than the first position estimate; and setting the seed position of the subscriber station to the second position estimate if the second position estimate has a lower position uncertainty than the first position estimate. deriving a first position estimate of the subscriber station from the parameter; attempting to derive a second position estimate of the subscriber station; setting the seed position of the subscriber station to the first position estimate if the second position estimate is unavailable; setting the seed position of the subscriber station to the first position estimate if the second position estimate has a higher position uncertainty than the first position estimate; and setting the seed position of the subscriber station to the second position estimate if the second position estimate has a lower position uncertainty than the first position estimate.
Duplex ferritic austenitic stainless steel having high formability utilizing the transformation of metastable retained austenite to martensite during plastic deformation (TRIP effect) and high corrosion resistance with the manganese balanced pitting resistance equivalent, characterized in that the duplex stainless steel contains less than 0,04 weight % carbon, less than 0,7 weight % silicon, less than 2,5 weight % manganese, 19,5 - 21,0 weight % chromium, 0,8-4,5 weight % nickel, 0,6-1,4 weight % molybdenum, less than 1 weight % copper, 0,10-0,24 weight % nitrogen, less than 0,003 weight % B, less than 0,003 weight % Ca, less than 0,1 weight % Ce, optionally one or more added elements: less than 0,04 weight % Al, up to 1 weight % Co, up to 0,5 weight % W, up to 0,1 weight % Nb, up to 0,1 weight % Ti, up to 0,2 weight % V, the rest being iron and inevitable impurities occurring in stainless steels, such as less than 0,010 weight % S, less than 0,040 weight % P so that the sum (S+P) is less than 0,04 weight %, and the total oxygen content is below 100 ppm, where the dependence between Si+Cr and Cu+Mo is 19,14-0,39(Cu+Mo) < (Si+Cr) < 22,45-0,39(Cu+Mo) and the dependence between C+N and Mn+Ni is 0,1< (C+N) < 0,78-0,06(Mn+Ni) in the pitting resistance equivalent range of 27-29,5 and in the measured M d30 temperature range of 10-70 °C, the proportion of the austenite phase in the microstructure is 45-75 volume %, the rest being ferrite, when heat treated at the temperature range of 950 -1150 °C and the critical pitting temperature CPT is in the range of 20-33 °C.
A direct ozone reduction system for use with a vehicle (10, 70) including an internal combustion engine, the system having a vehicle atmosphere purifying apparatus comprising: a vehicle component that is arranged at a location at which a flow path of atmospheric air is formed while the vehicle (10, 70) is running, the vehicle component being a radiator for cooling cooling water that circulates through the internal combustion engine; a cooling water circulation channel comprising a thermostat, the thermostat configured to open to allow water to flow to the radiator if the cooling water temperature becomes equal to or higher than a predetermined temperature and to close to stop the water flow when the temperature is lower than the predetermined temperature; an ozone purifying body that is provided on the vehicle component for purifying ozone; and heating means configured to, when it is determined that the adsorbed moisture amount on the ozone purifying body is equal to or greater than a predetermined amount, forcibly increase the temperature of the ozone purifying body to a high temperature by causing coolant to flow through the coolant circulation channel after the coolant undergoes heat exchange with the internal combustion engine to desorb moisture so that a temperature of the ozone purifying body becomes equal to or greater than the temperature at which moisture that is adsorbed on the ozone purifying body evaporates. a vehicle component that is arranged at a location at which a flow path of atmospheric air is formed while the vehicle (10, 70) is running, the vehicle component being a radiator for cooling cooling water that circulates through the internal combustion engine; a cooling water circulation channel comprising a thermostat, the thermostat configured to open to allow water to flow to the radiator if the cooling water temperature becomes equal to or higher than a predetermined temperature and to close to stop the water flow when the temperature is lower than the predetermined temperature; an ozone purifying body that is provided on the vehicle component for purifying ozone; and heating means configured to, when it is determined that the adsorbed moisture amount on the ozone purifying body is equal to or greater than a predetermined amount, forcibly increase the temperature of the ozone purifying body to a high temperature by causing coolant to flow through the coolant circulation channel after the coolant undergoes heat exchange with the internal combustion engine to desorb moisture so that a temperature of the ozone purifying body becomes equal to or greater than the temperature at which moisture that is adsorbed on the ozone purifying body evaporates.
Lock intended to be inserted and fixed in a lock body of a motor vehicle comprising: - A stator inside which a rotor is adapted to be rotatable, said stator having a fastening means to said lock body, - A cover of the rotor fixed on the front of said stator, said cover having an opening for the passage of a key engageable with said rotor, - An anti-stripping means carried by said cover and said stator for securing said cover to said stator and axially retaining said rotor in said stator, said anti-tearing means being configured to axially block said cover on said stator by placing said cover on said stator and its subsequent pivoting on said stator, said latch comprising a rotational locking member of said cover on said stator, characterized in that said rotational locking element has a general shape of band and comprises assembly means said stator and said cover, and in that said rotational locking element comprises means of assembly by latching to said stator. - A stator inside which a rotor is adapted to be rotatable, said stator having a fastening means to said lock body, - A cover of the rotor fixed on the front of said stator, said cover having an opening for the passage of a key engageable with said rotor, - An anti-stripping means carried by said cover and said stator for securing said cover to said stator and axially retaining said rotor in said stator,