mhurhangee/ep-ind-claims huggingface dataset:
Hydraulic bearing with an elastomer part incorporating an inner part and an outer sleeve, in which the elastomer part is inserted in a sealing manner to form at least two damping chambers divided from one another by a sealing lip fixedly fitted with the elastomer part and manufactured as a separate component, and which is formed by overmoulding on a support element joined to the elastomer part, characterised in that the sealing lip is integrally formed of elastomeric material together with these bordering edge crosspieces, which abut circumferentially in a sealing manner against the outer sleeve.
An apparatus for processing a shielded cable comprising: a heater adapted to be capable of producing enough heat to melt a material in a form of a sleeve; a pair of wheels (16, 18) arranged to form a nip capable of moving a cable therethrough; a motor operatively coupled to at least one of the pair of wheels for driving rotation of the wheels; a funnel configured to guide the cable from an entry side to an exit side; a funnel extension (172a-c) attached to or integrally formed with the funnel and extending from the exit side of the funnel, the funnel extension comprising a pair of prongs (78a, 78b) sized and configured to fit within an inner diameter of the sleeve and provide a surface for the cable to slide along and through the sleeve, wherein the pair of prongs is further configured to fit between the cable and the sleeve; and a computer configured to: activate the motor to drive rotation of the wheels in a cable pushing direction to cause a length of cable to be inserted into the funnel; control the heater to melt the sleeve on a portion of the length of the shielded cable that extends beyond the funnel extension; and activate the motor to drive rotation of the wheels in a cable pulling direction after melting the sleeve. a heater adapted to be capable of producing enough heat to melt a material in a form of a sleeve; a pair of wheels (16, 18) arranged to form a nip capable of moving a cable therethrough; a motor operatively coupled to at least one of the pair of wheels for driving rotation of the wheels; a funnel configured to guide the cable from an entry side to an exit side; a funnel extension (172a-c) attached to or integrally formed with the funnel and extending from the exit side of the funnel, the funnel extension comprising a pair of prongs (78a, 78b) sized and configured to fit within an inner diameter of the sleeve and provide a surface for the cable to slide along and through the sleeve, wherein the pair of prongs is further configured to fit between the cable and the sleeve; and a computer configured to: activate the motor to drive rotation of the wheels in a cable pushing direction to cause a length of cable to be inserted into the funnel; control the heater to melt the sleeve on a portion of the length of the shielded cable that extends beyond the funnel extension; and activate the motor to drive rotation of the wheels in a cable pulling direction after melting the sleeve. activate the motor to drive rotation of the wheels in a cable pushing direction to cause a length of cable to be inserted into the funnel; control the heater to melt the sleeve on a portion of the length of the shielded cable that extends beyond the funnel extension; and activate the motor to drive rotation of the wheels in a cable pulling direction after melting the sleeve.
A wireless communication method for a wireless device operable in a first wireless communication network and a second wireless communication network, the method comprising: receiving, from the first wireless communication network, an identification of one or more network nodes of the second wireless communication network, the one or more network nodes of the second wireless communication network operable to process traffic for the wireless device; receiving an instruction from the second wireless communication network to move traffic from a first network node of the second wireless communication network to a second network node of the second wireless communication network, the first network node being one of the identified one or more network nodes of the second wireless communication network; determining that an identification of the second network node is not included in the received identification of one or more network nodes of the second wireless communication network; and reporting, in response to the determining, to the first wireless network, a reason for moving traffic from the first network node of the second wireless communication network to the second network node of the second wireless communication network. receiving, from the first wireless communication network, an identification of one or more network nodes of the second wireless communication network, the one or more network nodes of the second wireless communication network operable to process traffic for the wireless device; receiving an instruction from the second wireless communication network to move traffic from a first network node of the second wireless communication network to a second network node of the second wireless communication network, the first network node being one of the identified one or more network nodes of the second wireless communication network; determining that an identification of the second network node is not included in the received identification of one or more network nodes of the second wireless communication network; and reporting, in response to the determining, to the first wireless network, a reason for moving traffic from the first network node of the second wireless communication network to the second network node of the second wireless communication network.
Hydraulic servo-actuated valve comprising a valve body comprising a first duct, with a first opening, a second duct, with a second opening, a main opening, arranged on the valve body between the first duct and the second duct, an actuator arranged at the main opening and adapted to make an actuating movement between an opening position, which allows the flow between the first duct and the second duct, and a closed position preventing the flow between the first duct and the second duct, said valve comprising a lid, arranged in an operative position on the valve body at the main opening, said lid having a central zone concurring with the actuator to delimit an actuating chamber, the first duct having a first through-hole, the lid having a second through-hole arranged in a position corresponding to the first through-hole, when the lid is arranged on the valve body in an operative position, the central zone of the lid having a third through-hole, said lid comprising first connecting means adapted to allow a flanged and removable connection of a first operative member only to the lid, wherein said second duct has a fourth through-hole and the lid has a fifth through-hole arranged in a position corresponding to the fourth through-hole, when the lid is arranged on the valve body in an operative position, the central zone of the lid having a sixth through-hole, said lid comprising second connecting means adapted to allow a flanged and removable connection of a second operative member only to the lid, the mutual positions of the second through-hole, the third through hole and the first connecting means corresponding to the mutual positions of the fifth through-hole, the sixth through-hole and the second connecting means, in order to allow connecting indifferently any of the first and second operative member (19, 20) in place of another.
Rotor blade of a wind turbine comprising an aerodynamic device which is actuated pneumatically by the use of a pressure supply system, wherein the pressure supply system comprises - a pressurized air supply system, - a pressurized air transmission system with pressure lines for transmitting the supplied pressurized air from the pressurized air supply system to the aerodynamic device, - at least one pneumatic actuator for activating the aerodynamic device, and - a safety system to protect the rotor blade from damages caused by overpressure in the pressurized air transmission system and/or the actuator, wherein the safety system comprises means for discharging pressurized air from the pressurized air transmission system and/or the actuator,and wherein the means for discharging pressurized air is actuated mechanically, or wherein the means for discharging pressurized air is actuated electrically, in particular by a solenoid valve, or wherein the means for discharging pressurized air is actuated pneumatically; characterized in that the rotor blade further comprises a further valve, which allows for a constant purging of air towards the atmosphere. wherein the pressure supply system comprises - a pressurized air supply system, - a pressurized air transmission system with pressure lines for transmitting the supplied pressurized air from the pressurized air supply system to the aerodynamic device, - at least one pneumatic actuator for activating the aerodynamic device, and - a safety system to protect the rotor blade from damages caused by overpressure in the pressurized air transmission system and/or the actuator, wherein the safety system comprises means for discharging pressurized air from the pressurized air transmission system and/or the actuator,and - a pressurized air supply system, - a pressurized air transmission system with pressure lines for transmitting the supplied pressurized air from the pressurized air supply system to the aerodynamic device, - at least one pneumatic actuator for activating the aerodynamic device, and - a safety system to protect the rotor blade from damages caused by overpressure in the pressurized air transmission system and/or the actuator, wherein the safety system comprises means for discharging pressurized air from the pressurized air transmission system and/or the actuator,and wherein the means for discharging pressurized air is actuated mechanically, or wherein the means for discharging pressurized air is actuated electrically, in particular by a solenoid valve, or wherein the means for discharging pressurized air is actuated pneumatically; characterized in that the rotor blade further comprises a further valve, which allows for a constant purging of air towards the atmosphere.
A centrifugal compressor comprising: a housing providing an inlet and an outlet having a diffuser and a volute; an electric motor provided in the housing and configured to drive at least one impeller via a shaft about an axis in response to a variable speed command, the impeller including an outlet end aligned with the diffuser; a variable fluid injector device downstream from the impeller outlet end and configured to inject fluid into the outlet in response to a compressor regulation command; a flow control device in fluid communication with the variable fluid injector device and configured to control flow rate and pressure of injected fluid; a controller in communication with the electric motor and the flow control device, the controller configured to respectively provide the variable speed command and the compressor regulation command to the electric motor and operatively to the flow control device to obtain a desired compressor operating condition; wherein the outlet includes a wall having a surface, the variable fluid injector device including multiple injector nozzles provided in the surface and oriented in a direction corresponding to the axis of the rotating impeller shaft, the multiple injector nozzles configured to inject microjets into the diffuser such that a cross-flow motion of the microjets energizes the boundary layer along the wall surface, and wherein the multiple injector nozzles are arranged at an approximately 90 degree angle to the surface. a housing providing an inlet and an outlet having a diffuser and a volute; an electric motor provided in the housing and configured to drive at least one impeller via a shaft about an axis in response to a variable speed command, the impeller including an outlet end aligned with the diffuser; a variable fluid injector device downstream from the impeller outlet end and configured to inject fluid into the outlet in response to a compressor regulation command; a flow control device in fluid communication with the variable fluid injector device and configured to control flow rate and pressure of injected fluid; a controller in communication with the electric motor and the flow control device, the controller configured to respectively provide the variable speed command and the compressor regulation command to the electric motor and operatively to the flow control device to obtain a desired compressor operating condition; wherein the outlet includes a wall having a surface, the variable fluid injector device including multiple injector nozzles provided in the surface and oriented in a direction corresponding to the axis of the rotating impeller shaft, the multiple injector nozzles configured to inject microjets into the diffuser such that a cross-flow motion of the microjets energizes the boundary layer along the wall surface, and wherein the multiple injector nozzles are arranged at an approximately 90 degree angle to the surface.
Goods display stand comprising a rear wall with side walls (3, 4) hinged thereto on both sides, wherein the side walls (3, 4) are formed with an outer layer and an inner layer at least in a region adjoining vertical outer edges, at least one goods carrier, comprising a bottom and a front wall formed in multiple layers, the bottom extending between the rear wall and the side walls (3, 4), characterized in that a fixing tab is punched out of each side wall (3, 4) and extends over a section of the outer layer and a section of the inner layer, the free end being punched out of the inner layer and the fixed end being pivotably hinged to the outer layer of the side wall (3, 4), wherein the fixed end and the free end are connected to one another via a bending line arranged parallel to the vertical outer edge in the region of the outer layer and can be bent relative to one another, wherein, in the use state, at least the part punched out of the inner layer is inserted into the front wall of the goods display stand. a rear wall with side walls (3, 4) hinged thereto on both sides, wherein the side walls (3, 4) are formed with an outer layer and an inner layer at least in a region adjoining vertical outer edges, at least one goods carrier, comprising a bottom and a front wall formed in multiple layers, the bottom extending between the rear wall and the side walls (3, 4), characterized in that a fixing tab is punched out of each side wall (3, 4) and extends over a section of the outer layer and a section of the inner layer, the free end being punched out of the inner layer and the fixed end being pivotably hinged to the outer layer of the side wall (3, 4), wherein the fixed end and the free end are connected to one another via a bending line arranged parallel to the vertical outer edge in the region of the outer layer and can be bent relative to one another, wherein, in the use state, at least the part punched out of the inner layer is inserted into the front wall of the goods display stand.
A computer-implemented method for displaying data more efficiently using an embedded system, wherein the embedded system comprises an integrated circuit and a convertor, and wherein the integrated circuit includes an image codec, the method comprising: requesting (S302,S402), by the embedded system, data from a server; determining, by the server, whether the requested data is frequently modified data or infrequently modified data, wherein the infrequently modified data is modified less than twice per month or even less frequently, wherein the frequently modified data is modified more frequently than the infrequently modified data; when the requested data is infrequently modified data, performing the following steps: - storing, by the server, the infrequently modified data as a string; - generating, by the server, a converted image from the string; - obtaining, by the embedded system, the converted image from the server; when the requested data is frequently modified data, performing the following steps: - receiving, from the server, the frequently modified data as a string at the embedded system; - generating (S412, S414), by means of the convertor, a converted image using the string; wherein a client of the embedded system further performs: - producing, by means of the image codec, a decoded image by decoding the converted image; and - sending the decoded image to a display device. requesting (S302,S402), by the embedded system, data from a server; determining, by the server, whether the requested data is frequently modified data or infrequently modified data, wherein the infrequently modified data is modified less than twice per month or even less frequently, wherein the frequently modified data is modified more frequently than the infrequently modified data; when the requested data is infrequently modified data, performing the following steps: - storing, by the server, the infrequently modified data as a string; - generating, by the server, a converted image from the string; - obtaining, by the embedded system, the converted image from the server; - storing, by the server, the infrequently modified data as a string; - generating, by the server, a converted image from the string; - obtaining, by the embedded system, the converted image from the server; when the requested data is frequently modified data, performing the following steps: - receiving, from the server, the frequently modified data as a string at the embedded system; - generating (S412, S414), by means of the convertor, a converted image using the string; - receiving, from the server, the frequently modified data as a string at the embedded system; - generating (S412, S414), by means of the convertor, a converted image using the string; wherein a client of the embedded system further performs: - producing, by means of the image codec, a decoded image by decoding the converted image; and - sending the decoded image to a display device. - producing, by means of the image codec, a decoded image by decoding the converted image; and - sending the decoded image to a display device.
An opening/closing detection device, comprising: a plurality of sensors embedded at one character at a predetermined portion of a mark attachable to a vehicle, configured to detect, as a trace order, an order of a motion of tracing the predetermined portion, and arranged along the trace order of said one character at the predetermined portion of the mark attachable to the vehicle; and a control unit configured to output an action trigger signal for instructing an opening action of an opening/closing body of the vehicle when detection signals representing the trace order of the one character are input from the plurality of sensors. a plurality of sensors embedded at one character at a predetermined portion of a mark attachable to a vehicle, configured to detect, as a trace order, an order of a motion of tracing the predetermined portion, and arranged along the trace order of said one character at the predetermined portion of the mark attachable to the vehicle; and a control unit configured to output an action trigger signal for instructing an opening action of an opening/closing body of the vehicle when detection signals representing the trace order of the one character are input from the plurality of sensors.
A method for spectrum-monitoring a given frequency band in which (a) the spectral power density (S(f)) within the given frequency band is determined for all the noise and signal components contained in the frequency band, and (b) in order to detect the presence of one or more signals within the given frequency band the instance of exceeding a threshold value (λ) by the spectral power density (S(f)) is evaluated, characterised in that (c) the threshold value (λ) is calculated as a function of an estimation of a distribution density (h R) for the noise component of the spectral power density (S(f)) within the given frequency band and a given value for the probability of false alarms (P fa), (d) the threshold value (λ) is calculated using a sub-frequency distribution ascertained from the power-density spectrum (S(f)), (e) in order to ascertain the sub-frequency distribution the frequency distribution of the spectral power density (S(f)) is determined throughout the given frequency band, and that section of the frequency distribution in which the values for the frequency exhibit a peak-like characteristic and in which the values for the quantized power density (S(f)) cover at least the region in which pure noise can be expected is used as the sub-frequency distribution. (a) the spectral power density (S(f)) within the given frequency band is determined for all the noise and signal components contained in the frequency band, and (b) in order to detect the presence of one or more signals within the given frequency band the instance of exceeding a threshold value (λ) by the spectral power density (S(f)) is evaluated, characterised in that (c) the threshold value (λ) is calculated as a function of an estimation of a distribution density (h R) for the noise component of the spectral power density (S(f)) within the given frequency band and a given value for the probability of false alarms (P fa), (d) the threshold value (λ) is calculated using a sub-frequency distribution ascertained from the power-density spectrum (S(f)), (e) in order to ascertain the sub-frequency distribution the frequency distribution of the spectral power density (S(f)) is determined throughout the given frequency band, and that section of the frequency distribution in which the values for the frequency exhibit a peak-like characteristic and in which the values for the quantized power density (S(f)) cover at least the region in which pure noise can be expected is used as the sub-frequency distribution.
A method to obtain the spatial location and sequence information of at least a part of a RNA or cDNA strand () in a sample comprising the steps a. hybridizing a first detection probe oligonucleotide comprising 50 - 1000 nucleotides with its 3' or 5' end to the complementary part of the at least one RNA or cDNA strand, wherein the detection probe oligonucleotide is partially hybridized to a bridge oligonucleotide comprising 5 - 100 nucleotides wherein a gap region capable of binding oligonucleotides is created b. filling the gap region in part with 1 to 16 barcode oligonucleotides comprising 4 - 20 nucleotides, wherein the barcode oligonucleotides determine the spatial information of the RNA or cDNA strand in the sample c. partially hybridizing a second detection probe oligonucleotide comprising 50 - 1000 nucleotides with its 3' or 5' end to the complementary part of the same RNA or cDNA strand and with the respective other end to the bridge oligonucleotide to create a circular template d. multiplying the circular template by a polymerase capable of rolling circle amplification into rolonies comprising a plurality of concatemers e. determining the sequence of nucleotides of the rolonies a. hybridizing a first detection probe oligonucleotide comprising 50 - 1000 nucleotides with its 3' or 5' end to the complementary part of the at least one RNA or cDNA strand, wherein the detection probe oligonucleotide is partially hybridized to a bridge oligonucleotide comprising 5 - 100 nucleotides wherein a gap region capable of binding oligonucleotides is created b. filling the gap region in part with 1 to 16 barcode oligonucleotides comprising 4 - 20 nucleotides, wherein the barcode oligonucleotides determine the spatial information of the RNA or cDNA strand in the sample c. partially hybridizing a second detection probe oligonucleotide comprising 50 - 1000 nucleotides with its 3' or 5' end to the complementary part of the same RNA or cDNA strand and with the respective other end to the bridge oligonucleotide to create a circular template d. multiplying the circular template by a polymerase capable of rolling circle amplification into rolonies comprising a plurality of concatemers e. determining the sequence of nucleotides of the rolonies