mhurhangee/ep-ind-claims huggingface dataset:
A preparation method of an arsenic removal adsorbent for purification process of propylene gas streams with the composition containing the following components in terms of weight percent: 10 to 40 wt% of CuO, 5 to 30 wt% of ZnO, 1 to 20 wt% of CaO, 0.1 to 10 wt% of Cl -, and 0.1 to 10 wt% of rare earth oxide, wherein the rare earth is lanthanum or cerium and remainder being Al 2 O 3, comprising the following steps: 1) the precursor microporous γ-Al 2 O 3 and nano-ZnO are mixed uniformly by one of the methods selected from dry method, wet method and liquid phase mixing method, wherein the precursor microporous γ -Al 2 O 3 is aluminum hydroxide xerogel powder prepared by precipitation of aluminum sulfate and the precursor of the nano-ZnO is basic zinc carbonate and the mixture is shaped into small spherical balls by one of the methods such as rolling, oil column forming or extrusion-cutting-shaping; 2) drying the formed balls at 100 to 250°C for 0.5 to 15 hours to form composite carrier cores; 3) coating the composite carrier cores with a composition of CaCl 2 and Al2 n Cl 6-n (n=1-5) to form outer layer via ball rolling; 4) impregnating the produced core-shell balls with an acidified aqueous solution of copper and rare earth compounds, the rare earth being lanthanum or cerium, by either step-by-step impregnation or mixed impregnation method, followed by drying at 100 to 250°C for 0.5 to 15 hours, wherein the impregnation and drying steps can be alternately repeated 1 to 5 times; 5) activating the impregnated material by calcining at 300 to 650°C for 0.5 to 15 hours. 1) the precursor microporous γ-Al 2 O 3 and nano-ZnO are mixed uniformly by one of the methods selected from dry method, wet method and liquid phase mixing method, wherein the precursor microporous γ -Al 2 O 3 is aluminum hydroxide xerogel powder prepared by precipitation of aluminum sulfate and the precursor of the nano-ZnO is basic zinc carbonate and the mixture is shaped into small spherical balls by one of the methods such as rolling, oil column forming or extrusion-cutting-shaping; 2) drying the formed balls at 100 to 250°C for 0.5 to 15 hours to form composite carrier cores; 3) coating the composite carrier cores with a composition of CaCl 2 and Al2 n Cl 6-n (n=1-5) to form outer layer via ball rolling; 4) impregnating the produced core-shell balls with an acidified aqueous solution of copper and rare earth compounds, the rare earth being lanthanum or cerium, by either step-by-step impregnation or mixed impregnation method, followed by drying at 100 to 250°C for 0.5 to 15 hours, wherein the impregnation and drying steps can be alternately repeated 1 to 5 times; 5) activating the impregnated material by calcining at 300 to 650°C for 0.5 to 15 hours.
A mounted compactor, which can be coupled to a digger and in which an impact action is generated by means of at least one rotating mass (32, 36) located eccentrically relative to at least one drive shaft, wherein both the eccentricity and the impact frequency of the rotating mass (32, 36) are variable in targeted fashion in operation, and wherein at least three discrete modes of operation (X1, X2, X3) can be established, characterized in that in the first mode of operation, the eccentricity is greater than in the second mode of operation and third mode of operation and the impact frequency is less than in the third mode of operation, and in the second mode of operation and third mode of operation, the eccentricities are equal, but in the second mode of operation the impact frequency is less than in the third mode of operation; and that a preferably optical display device is provided, which in operation indicates the current mode of operation (X1, X2, X3) of the mounted compactor to the driver of the digger; and that the display device is embodied such that it outputs a first signal, associated with the applicable mode of operation, if the mounted compactor is located at least approximately in one of the at least three discrete modes of operation (X1, X2, X3), and outputs a second signal, associated with the applicable mode of operation, if the mounted compactor is slightly outside the applicable mode of operation (X1, X2, X3).
Method for executing an agricultural harvesting process on a field by means of a network of agricultural harvesting machines (3 - 7), wherein the harvesting machines (3 - 7) of the network each have crop-processing working units which are adjustable with machine parameters for adaptation to the respective harvesting conditions, wherein the harvesting machines (3 - 7) of the network communicate with one another via a wireless data network, wherein at least one master harvesting machine of the network is designed as a self-optimising harvesting machine which has an optimisation system comprising a driver assistance system for the automated generation of machine parameters optimised with regard to its crop processing, characterised in that in that optimisation data comprising user specifications and/or parameter settings are provided by the master harvesting machine and optimised machine parameters generated by the optimisation system on the basis of the optimisation data are provided via the data network and received by slave harvesting machines (4 - 7) of the network, and wherein at least the optimised machine parameters are adapted to the respective slave harvesting machine (4 - 7) in a standardisation routine based on standardisation rules. wherein at least one master harvesting machine of the network is designed as a self-optimising harvesting machine which has an optimisation system comprising a driver assistance system for the automated generation of machine parameters optimised with regard to its crop processing, characterised in that in that optimisation data comprising user specifications and/or parameter settings are provided by the master harvesting machine and optimised machine parameters generated by the optimisation system on the basis of the optimisation data are provided via the data network and received by slave harvesting machines (4 - 7) of the network, and wherein at least the optimised machine parameters are adapted to the respective slave harvesting machine (4 - 7) in a standardisation routine based on standardisation rules.
A disinfecting and transport assembly for transporting and disinfecting products comprising at least one transport roller and a first UV light source inserted in the transport roller, characterized in that a jacket of the transport roller is formed from a material which is impermeable to UV light produced by the first UV light source and has openings for passage of the UV light.
A base station comprising: first communication means for forming a cell (20_2) to conduct radio communication with one or more mobile stations; second communication means for conducting communication with a neighboring base station placed adjacent to the radio base station to monitor whether or not a failure occurs in the neighboring base station; and control means for controlling the first and second communication means, wherein the control means is configured to: store information on each of one or more neighboring base stations to be monitored by the second communication means, in association with information on coverage of each of neighboring cells (20_3) formed by the respective neighboring base stations; identify, when it is detected by the second communication means that a failure occurs in one neighboring base station, information on coverage of one neighboring cell (20_3) corresponding to said one neighboring base station; determine a parameter for expanding the coverage of the cell (20_2) based on the identified information; and to cause, when it is detected as a result of the monitoring that the failure occurs in the neighboring base station, the first communication means to expand coverage of the cell (20_2) so as to complement coverage of a neighboring cell (20_3) formed by the neighboring base station, and wherein the second communication means is configured to conduct the communication with the neighboring base station, to monitor whether or not a failure occurs in the neighbouring base station using an Ethernet Operations, Administration, Maintenance, OAM, signal. first communication means for forming a cell (20_2) to conduct radio communication with one or more mobile stations; second communication means for conducting communication with a neighboring base station placed adjacent to the radio base station to monitor whether or not a failure occurs in the neighboring base station; and control means for controlling the first and second communication means, wherein the control means is configured to: store information on each of one or more neighboring base stations to be monitored by the second communication means, in association with information on coverage of each of neighboring cells (20_3) formed by the respective neighboring base stations; identify, when it is detected by the second communication means that a failure occurs in one neighboring base station, information on coverage of one neighboring cell (20_3) corresponding to said one neighboring base station; determine a parameter for expanding the coverage of the cell (20_2) based on the identified information; and to cause, when it is detected as a result of the monitoring that the failure occurs in the neighboring base station, the first communication means to expand coverage of the cell (20_2) so as to complement coverage of a neighboring cell (20_3) formed by the neighboring base station, and wherein the second communication means is configured to conduct the communication with the neighboring base station, to monitor whether or not a failure occurs in the neighbouring base station using an Ethernet Operations, Administration, Maintenance, OAM, signal.
An ultrasound probe for digital microbeamforming, comprising: a microbeamformer comprising an analog application specific integrated circuit (ASIC) and a digital application specific integrated circuit (ASIC), and an array transducer adapted to scan a target region and coupled to the microbeamformer; wherein the analog ASIC comprises: a plurality of amplifiers configured to receive analog echo signals from transducer elements of the array transducer; wherein the digital ASIC comprises: low power ADCs configured to receive amplified analog echo signals from the amplifiers and to convert them to digital echo data; and digital beamforming circuitry coupled to the low power ADCs and configured to produce digital beamformed echo signals, wherein the digital ASIC is configured to operate at a core clock frequency, characterized in that the digital ASIC comprises digital circuitry configured to be clocked at a frequency that is at least twice the core clock frequency, wherein the low power ADCs and the digital beamforming circuitry are located on the same silicon die in the digital ASIC. a microbeamformer comprising an analog application specific integrated circuit (ASIC) and a digital application specific integrated circuit (ASIC), and an array transducer adapted to scan a target region and coupled to the microbeamformer; wherein the analog ASIC comprises: a plurality of amplifiers configured to receive analog echo signals from transducer elements of the array transducer; wherein the digital ASIC comprises: low power ADCs configured to receive amplified analog echo signals from the amplifiers and to convert them to digital echo data; and digital beamforming circuitry coupled to the low power ADCs and configured to produce digital beamformed echo signals, low power ADCs configured to receive amplified analog echo signals from the amplifiers and to convert them to digital echo data; and digital beamforming circuitry coupled to the low power ADCs and configured to produce digital beamformed echo signals, wherein the digital ASIC is configured to operate at a core clock frequency, characterized in that the digital ASIC comprises digital circuitry configured to be clocked at a frequency that is at least twice the core clock frequency, wherein the low power ADCs and the digital beamforming circuitry are located on the same silicon die in the digital ASIC.
A method of converting biomass to biomass-derived fuels and chemicals, the method comprising: providing a biomass feed stream comprising a solvent and a solid biomass component comprising cellulose, hemicellulose and lignin, wherein the solid biomass component has been chopped, shredded, pressed, ground or processed to a size amenable for conversion; catalytically reacting the biomass feed stream with hydrogen and a deconstruction catalyst at a deconstruction temperature and a deconstruction pressure to produce a product stream comprising a vapor phase, a liquid phase and a solid phase, the vapor phase comprising one or more volatile C 2+ O 1-2 oxygenates, which oxygenates have a relative volatility α with respect to 1-hexanol of greater than 0.03 based on pure components at 250 °C, the liquid phase comprising water and one or more C 2+ O 2+ oxygenated hydrocarbons, which oxygenated hydrocarbons have a relative volatility α with respect to 1-hexanol of less than 0.03 based on pure components at 250 °C, and the solid phase comprising extractives; separating the volatile C 2+ O 1-2 oxygenates from the liquid phase and solid phase; and catalytically reacting the volatile C 2+ O 1-2 oxygenates in the presence of a condensation catalyst at a condensation temperature and condensation pressure to produce a C 4+ compound comprising a member selected from the group consisting of C 4+ alcohol, C 4+ ketone, C 4+ alkane, C 4+ alkene, C 5+ cycloalkane, C 5+ cycloalkene, aryl, fused aryl, and a mixture thereof. providing a biomass feed stream comprising a solvent and a solid biomass component comprising cellulose, hemicellulose and lignin, wherein the solid biomass component has been chopped, shredded, pressed, ground or processed to a size amenable for conversion; catalytically reacting the biomass feed stream with hydrogen and a deconstruction catalyst at a deconstruction temperature and a deconstruction pressure to produce a product stream comprising a vapor phase, a liquid phase and a solid phase, the vapor phase comprising one or more volatile C 2+ O 1-2 oxygenates, which oxygenates have a relative volatility α with respect to 1-hexanol of greater than 0.03 based on pure components at 250 °C, the liquid phase comprising water and one or more C 2+ O 2+ oxygenated hydrocarbons, which oxygenated hydrocarbons have a relative volatility α with respect to 1-hexanol of less than 0.03 based on pure components at 250 °C, and the solid phase comprising extractives; separating the volatile C 2+ O 1-2 oxygenates from the liquid phase and solid phase; and catalytically reacting the volatile C 2+ O 1-2 oxygenates in the presence of a condensation catalyst at a condensation temperature and condensation pressure to produce a C 4+ compound comprising a member selected from the group consisting of C 4+ alcohol, C 4+ ketone, C 4+ alkane, C 4+ alkene, C 5+ cycloalkane, C 5+ cycloalkene, aryl, fused aryl, and a mixture thereof.
A noncontact cosmetic treatment system for treating subcutaneous tissue of a patient having a volume of lipid-rich cells, comprising: a power supply, a HF generator, a transmatch, a balun transformer, a transmatch and generator control unit, a microprocessor control unit with a user interface, and an applicator; wherein the transmatch is configured to process a signal from the HF generator and transmit the processed HF signal to the balun transformer, wherein the balun transformer is configured to convert unbalanced impedance to balanced impedance and then this processed signal goes to the applicator; wherein the applicator comprises at least one pair of two balanced capacitive electrodes; wherein the microprocessor control unit with the user interface are configured to provide communication to the transmatch and generator control unit; wherein the transmatch and generator control unit is configured to regulate the operation of the HF generator and the transmatch; wherein the applicator has a surface area of at least 50 cm 2; wherein the applicator is configured to be positioned spaced apart from the skin of the patient by an air gap; wherein the applicator comprises a mechanical holder configured to temporarily fix the applicator in position relative to the patient; and wherein the applicator is configured to transmit the corresponding HF waves into the subcutaneous tissue to thereby heat the subcutaneous tissue via the HF waves. a power supply, a HF generator, a transmatch, a balun transformer, a transmatch and generator control unit, a microprocessor control unit with a user interface, and an applicator; wherein the transmatch is configured to process a signal from the HF generator and transmit the processed HF signal to the balun transformer, wherein the balun transformer is configured to convert unbalanced impedance to balanced impedance and then this processed signal goes to the applicator; wherein the applicator comprises at least one pair of two balanced capacitive electrodes; wherein the microprocessor control unit with the user interface are configured to provide communication to the transmatch and generator control unit; wherein the transmatch and generator control unit is configured to regulate the operation of the HF generator and the transmatch; wherein the applicator has a surface area of at least 50 cm 2; wherein the applicator is configured to be positioned spaced apart from the skin of the patient by an air gap; wherein the applicator comprises a mechanical holder configured to temporarily fix the applicator in position relative to the patient; and wherein the applicator is configured to transmit the corresponding HF waves into the subcutaneous tissue to thereby heat the subcutaneous tissue via the HF waves.
An object transport apparatus (1000, 2000, 3000) comprising a. a transport conveyor having an object space adjacent to the transport conveyor, wherein when in operation the transport conveyor compels and transports objects through the object space; b. a first plurality of flights (210, 500) that extend from a flight carrying element, disposed along a variable path and constrained to move along that path, a variable portion of the path disposed adjacent to the transport conveyor, wherein the flights (210, 500) disposed along the adjacent portion occupy a portion of an object space of the transport conveyor; wherein the first plurality of flights (210, 500) are attached to a common first flight carrier element which first flight carrier element is compelled to traverse the variable path; and wherein the flight carrying element comprises a belt or chain; c. a first transfer element disposed along the variable path wherein the motion of the first transfer element varies the length of the variable path adjacent to the transport conveyor; d. an object sensor disposed to detect objects upstream of the transfer element; e. a controller which interacts with a transfer element drive to alter the position of the transfer element along the variable path according to the output of the sensor; and f. a second transfer element, characterized in that the second transfer element moves in opposition to the motion of the first transfer element such that as the first transfer element moves downstream reducing the portion of the variable path which is adjacent to the transport conveyor, the second transfer element moves upstream to maintain a constant overall variable path length. a. a transport conveyor having an object space adjacent to the transport conveyor, wherein when in operation the transport conveyor compels and transports objects through the object space; b. a first plurality of flights (210, 500) that extend from a flight carrying element, disposed along a variable path and constrained to move along that path, a variable portion of the path disposed adjacent to the transport conveyor, wherein the flights (210, 500) disposed along the adjacent portion occupy a portion of an object space of the transport conveyor; wherein the first plurality of flights (210, 500) are attached to a common first flight carrier element which first flight carrier element is compelled to traverse the variable path; and wherein the flight carrying element comprises a belt or chain; c. a first transfer element disposed along the variable path wherein the motion of the first transfer element varies the length of the variable path adjacent to the transport conveyor; d. an object sensor disposed to detect objects upstream of the transfer element; e. a controller which interacts with a transfer element drive to alter the position of the transfer element along the variable path according to the output of the sensor; and f. a second transfer element,
A system for determining the spatial position and/or orientation of a medical instrument, comprised of a transmission unit emitting an electromagnetic radiation, at least one localisation element arranged at a medical instrument which is suitable for receiving the electromagnetic radiation emitted from transmission unit and for generating a localisation signal, and comprised of an evaluation unit, which is configured to determine the position and/or orientation of the medical instrument by evaluating the localisation signal, and at least one receiving unit (6, 7, 8) connected to the evaluation unit, wherein the localisation element is comprised of a transponder which is comprised of an antenna and a circuit connected to the antenna for receiving and transmitting electromagnetic radiation, with said circuit being excitable through the electromagnetic radiation from the transmission unit received via the antenna, in such a manner that it emits the localisation signal as electromagnetic radiation through antenna, characterized in that the evaluation unit being properly provided for determining the position and/or orientation of the medical instrument based on the phase relation of the electromagnetic radiation of the localisation signal at the relevant site of the receiving unit (6, 7, 8), wherein the circuit is provided for generating the localisation signal at two or more different frequencies, in such a way, that by generating the localisation signal at low frequencies a rough determination of the position and/or orientation takes place, and to increase accuracy a higher frequency is then chosen or the frequency of the localisation signal is successively incremented.
MIL-53-Al-N 3 crystallized hybrid solid with an organic-inorganic matrix, of a three-dimensional structure, containing an inorganic network of aluminum-based metal centers that are connected to one another by organic ligands that consist of the entity -O 2 C-C 6 H 3 -N 3 -CO 2 - (N 3 -bdc ligand), whereby said solid exhibits an X-ray diffraction diagram that includes at least the lines that are recorded in the table below: 2 Theta (°) d hkl (Å) I/I 0 2 Theta (°) d hkl (Å) I/I 0 9.36 9.44 mf 29.63 3.01 f 11.94 7.40 FF 32.86 2.72 f 17.34 5.11 F 33.55 2.67 ff 17.83 4.97 mf 34.84 2.57 ff 19.92 4.45 f 36.04 2.49 ff 22.06 4.03 f 40.54 2.22 ff 23.98 3.71 mf 40.89 2.21 ff 25.31 3.52 f 44.29 2.04 ff 26.36 3.38 mf 51.02 1.79 ff where FF = Very High; F = High; m = Medium; mf = Medium Low; f = Low; and ff = Very Low, with the relative intensity I/I 0 being provided in relation to a relative intensity scale where a value of 100 is assigned to the most intense line of the X-ray diffraction diagram: ff < 15; 15 ≤ f < 30; 30 ≤ mf < 50; 50 ≤ m < 65; 65 ≤ F < 85; and FF ≥ 85.