mhurhangee/ep-ind-claims huggingface dataset:
Position determination arrangement, wherein the arrangement has a housing; a first antenna that is designed to receive satellite signals from at least one satellite and to provide a first antenna signal; a second antenna that is designed to receive satellite signals from at least one satellite and to provide a second satellite signal; at least one receiver unit (21, 211, 212) that is arranged inside the housing and is designed to determine at least one parameter of the first antenna signal and at least one corresponding parameter of the second antenna signal; and an evaluation unit that is arranged inside the housing and is designed to compare at least one parameter of the first antenna signal with at least one corresponding parameter of the second antenna signal with one another, wherein the result of the comparison delivers an indication of possible interference with the arrangement or with the reception of the satellite signals; characterized in that the first antenna is arranged inside the housing and the second antenna is arranged outside the housing. a first antenna that is designed to receive satellite signals from at least one satellite and to provide a first antenna signal; a second antenna that is designed to receive satellite signals from at least one satellite and to provide a second satellite signal; at least one receiver unit (21, 211, 212) that is arranged inside the housing and is designed to determine at least one parameter of the first antenna signal and at least one corresponding parameter of the second antenna signal; and an evaluation unit that is arranged inside the housing and is designed to compare at least one parameter of the first antenna signal with at least one corresponding parameter of the second antenna signal with one another, wherein the result of the comparison delivers an indication of possible interference with the arrangement or with the reception of the satellite signals; characterized in that the first antenna is arranged inside the housing and the second antenna is arranged outside the housing.
A waste liquid treatment method comprising: a separation step of housing a waste liquid containing blood and a body fluid in a container, and charging a waste liquid treatment composition into the waste liquid in the container, followed by stirring to separate the waste liquid into a supernatant and an aggregate; and a step of discarding the supernatant through a filter, wherein the waste liquid treatment composition is for treating the waste liquid containing blood and a body fluid to separate the waste liquid into a supernatant and an aggregate in the container and, the waste liquid treatment composition comprising: a solid flocculant, which is at least one selected from the group consisting of a cationic polymer flocculant and an amphoteric polymer flocculant, having at least one group selected from the group consisting of an OH group and an NH group; and a solid boron-containing compound having an OH group. a separation step of housing a waste liquid containing blood and a body fluid in a container, and charging a waste liquid treatment composition into the waste liquid in the container, followed by stirring to separate the waste liquid into a supernatant and an aggregate; and a step of discarding the supernatant through a filter, wherein the waste liquid treatment composition is for treating the waste liquid containing blood and a body fluid to separate the waste liquid into a supernatant and an aggregate in the container and, the waste liquid treatment composition comprising: a solid flocculant, which is at least one selected from the group consisting of a cationic polymer flocculant and an amphoteric polymer flocculant, having at least one group selected from the group consisting of an OH group and an NH group; and a solid boron-containing compound having an OH group. a solid flocculant, which is at least one selected from the group consisting of a cationic polymer flocculant and an amphoteric polymer flocculant, having at least one group selected from the group consisting of an OH group and an NH group; and a solid boron-containing compound having an OH group.
An operation control device of plural vacuum pumps (P A, P B, P C) for depressurizing gas inside at least one tank and/or chamber, comprising: a current detecting means which detects a current flowing in a motor (M A, M B, M C) that drives the vacuum pumps (P A, P B, P C); and characterized in that it comprises: a control means which reduces the number of the vacuum pumps under operation by judging that a target vacuum and/or substantially vacuum condition is reached when a current value detected by said current detecting means converges within a predetermined range. a current detecting means which detects a current flowing in a motor (M A, M B, M C) that drives the vacuum pumps (P A, P B, P C); and characterized in that it comprises: a control means which reduces the number of the vacuum pumps under operation by judging that a target vacuum and/or substantially vacuum condition is reached when a current value detected by said current detecting means converges within a predetermined range. a control means which reduces the number of the vacuum pumps under operation by judging that a target vacuum and/or substantially vacuum condition is reached when a current value detected by said current detecting means converges within a predetermined range.
A method, performed by a mobile device, comprising: receiving, from a base station, a first threshold value and a second threshold value, wherein the first threshold value and the second threshold value are associated with a physical random access channel PRACH used for extended coverage of the base station, hereafter referred to as an mPRACH; measuring downlink pathloss from the base station to the mobile device; and transmitting a preamble signal, to the base station using the mPRACH based on a comparison of the downlink pathloss measurements with the first and second threshold values, wherein said first threshold value is associated with a minimum pathloss to use the mPRACH for access and said second threshold value is associated with a maximum pathloss to prevent the mobile device from connecting to the base station. receiving, from a base station, a first threshold value and a second threshold value, wherein the first threshold value and the second threshold value are associated with a physical random access channel PRACH used for extended coverage of the base station, hereafter referred to as an mPRACH; measuring downlink pathloss from the base station to the mobile device; and transmitting a preamble signal, to the base station using the mPRACH based on a comparison of the downlink pathloss measurements with the first and second threshold values, wherein said first threshold value is associated with a minimum pathloss to use the mPRACH for access and said second threshold value is associated with a maximum pathloss to prevent the mobile device from connecting to the base station.
A direct radio transmission communication system, comprising a first transceiver and a plurality of second transceivers (11, 12, 13), wherein the first transceiver is configured to transmit a data packet comprising at least one data packet fragment (21 1, 21 2, 21 3, 21 4, 21 5), wherein the plurality of second transceivers (11, 12, 13) are configured to attempt to receive all the data packet fragments (21 1, 21 2, 21 3, 21 4, 21 5) of the data packet, wherein the plurality of second transceivers (11, 12, 13) are configured to transmit a not-acknowledge, NACK, signal, if at least one data packet fragment (21 1, 21 2, 21 3, 21 4, 21 5) of the data packet has not been successfully received, to the first transceiver, wherein the NACK signal comprises a NACK sub-signal for each not successfully received data packet fragment (21 1, 21 2, 21 3, 21 4, 21 5) of the data packet, each within a specific NACK signal sub-timeslot (25 1, 25 2, 25 3, 25 4, 25 5, 25 6, 25 7, 25 8, 25 9, 25 10) dedicated to a specific sequential data packet fragment number of the not successfully received data packet fragment (21 1, 21 2, 21 3, 21 4, 21 5) of the data packet, wherein the direct radio transmission communication system is a TDMA system, wherein the first transceiver is configured to transmit the data packet fragments (21 1, 21 2, 21 3, 21 4, 21 5) of the data packet in a transmission window, wherein the transmission window comprises a number of timeslots equal to the number of data packet fragments (21 1, 21 2, 21 3, 21 4, 21 5) of the data packet to transmit in addition to a management timeslot, and wherein the plurality of second transceivers (11, 12, 13) are adapted to transmit the NACK signal to the first transceiver during the management timeslot, wherein the management timeslot comprises the dedicated NACK signal sub-timeslots (25 1, 25 2, 25 3, 25 4, 25 5, 25 6, 25 7, 25 8, 25 9, 25 10) for each of the sequential data packet fragment numbers (21 1, 21 2, 21 3, 21 4, 21 5), and wherein the dedicated NACK signal sub-timeslots (25 1, 25 2, 25 3, 25 4, 25 5, 25 6, 25 7, 25 8, 25 9, 25 10) are arranged successively within the management timeslot, separated by preceding guard intervals, wherein each NACK signal sub-timeslot (25 1, 25 2, 25 3, 25 4, 25 5, 25 6, 25 7, 25 8, 25 9, 25 10) is comprised of a jitter timespace and a NACK timespace, and wherein the plurality of second transceivers (11, 12, 13) are configured to - randomly select a length (t jit) of the jitter timespace, and - begin transmission of the NACK sub-signal after waiting during the jitter timespace, within the NACK timespace. - randomly select a length (t jit) of the jitter timespace, and - begin transmission of the NACK sub-signal after waiting during the jitter timespace, within the NACK timespace.
A reactive-type chemical conversion treating acidic composition comprising a water-soluble trivalent chromium-containing substance, a water-soluble titanium-containing substance, a carboxylic acid compound, and a water-soluble aluminum-containing substance, the acidic composition being free from a water-soluble cobalt-containing substance, wherein the carboxylic acid compound is at least one compound selected from citric acid compounds and oxalic acid compounds, wherein a first ratio, which is the ratio of the content of citric acid compound in terms of citric acid (unit: mol/L) to the content of water-soluble trivalent chromium-containing substance in terms of chromium (unit: mol/L), is 0.05 or more and 0.8 or less, wherein the content of the water-soluble trivalent chromium-containing substance in the composition is 0.01 mol/L or more and 0.1 mol/L or less in terms of chromium, and wherein a second ratio, which is the ratio of the content of oxalic acid compound in terms of oxalic acid (unit: mol/L) to the content of water-soluble trivalent chromium-containing substance in terms of chromium (unit: mol/L), is 0.05 or more and 2 or less, and wherein the water-soluble aluminum-containing substance in the composition is 0.0001 mol/L or more and 0.1 mol/L or less in terms of aluminum.
A coating composition comprising components and: based on the total dry weight of the component, (a) from 10 to 75 % of a waterborne epoxy dispersion, based on the total dry weight of Part A; (b) from 0.01 to 5 % of a polymeric dispersant and (c) from 20 to 85 % of inorganic particles, and a curing agent, in which the ratio of the component and the component is 90: 1 to 2: 1, and the polymeric dispersant is a polymer formed from a monomer composition comprising a monomer containing a hydrophilic group that is unreactive with oxirane groups, wherein the monomer is selected from the group consisting of acrylamide, phosphoethyl methacrylate, sodium styrene sulfonate, and acrylamide-methyl-propane sulfonate. based on the total dry weight of the component, (a) from 10 to 75 % of a waterborne epoxy dispersion, based on the total dry weight of Part A; (b) from 0.01 to 5 % of a polymeric dispersant and (c) from 20 to 85 % of inorganic particles, and (a) from 10 to 75 % of a waterborne epoxy dispersion, based on the total dry weight of Part A; (b) from 0.01 to 5 % of a polymeric dispersant and (c) from 20 to 85 % of inorganic particles, and a curing agent, in which the ratio of the component and the component is 90: 1 to 2: 1, and the polymeric dispersant is a polymer formed from a monomer composition comprising a monomer containing a hydrophilic group that is unreactive with oxirane groups, wherein the monomer is selected from the group consisting of acrylamide, phosphoethyl methacrylate, sodium styrene sulfonate, and acrylamide-methyl-propane sulfonate. in which the ratio of the component and the component is 90: 1 to 2: 1, and the polymeric dispersant is a polymer formed from a monomer composition comprising a monomer containing a hydrophilic group that is unreactive with oxirane groups, wherein the monomer is selected from the group consisting of acrylamide, phosphoethyl methacrylate, sodium styrene sulfonate, and acrylamide-methyl-propane sulfonate.
A filter element comprising: (a) a construction of pleated filter media defining an interior volume; (b) first and second opposite end caps secured to opposite ends of the filter media; and (c) a support structure supporting the filter media operably oriented in the interior volume; (i) the support structure extending less than a full extension between the first end cap and second end cap, and (ii) wherein the support structure is non-metal. (a) a construction of pleated filter media defining an interior volume; (b) first and second opposite end caps secured to opposite ends of the filter media; and (c) a support structure supporting the filter media operably oriented in the interior volume; (i) the support structure extending less than a full extension between the first end cap and second end cap, and (ii) wherein the support structure is non-metal. (i) the support structure extending less than a full extension between the first end cap and second end cap, and (ii) wherein the support structure is non-metal.
A battery module, comprising: a battery unit, wherein the battery unit comprises n first-type battery cells and m second-type battery cells, n ≥ 1, m ≥ 1, and the n first-type battery cells and the m second-type battery cells are arranged and satisfy: VED 1 > VED 2, Δ F 1 > Δ F 2, Δ F 1 × n + Δ F 2 × m / n + m ≤ 0.8 × Δ F 1, where VED 1 represents a volumetric energy density of the first-type battery cell, in Wh/L, VED 2 represents a volumetric energy density of the second-type battery cell, in Wh/L, ΔF 1 represents an expansion force change rate of the first-type battery cell, in Newton/cycle, and ΔF 2 represents an expansion force change rate of the second-type battery cell, in Newton/cycle, the expansion force change rate is an average expansion force change ΔF/500 after 500 cycles of charging and discharging of a battery cell at 25°C and 0.33 C 0 rate (C 0 represents a nominal capacity of the battery cell) within an upper cut-off voltage and lower cut-off voltage range of the battery cell, as determined according to the description and the ΔF is a change value of pressure of the battery cell detected by a sensor of a detection device at the 500th cycle and at the beginning; wherein, the n first-type battery cells and the m second-type battery cells are electrically connected, and the electrical connection comprises at least a series connection. a battery unit, wherein the battery unit comprises n first-type battery cells and m second-type battery cells, n ≥ 1, m ≥ 1, and the n first-type battery cells and the m second-type battery cells are arranged and satisfy: VED 1 > VED 2, Δ F 1 > Δ F 2, Δ F 1 × n + Δ F 2 × m / n + m ≤ 0.8 × Δ F 1, where VED 1 represents a volumetric energy density of the first-type battery cell, in Wh/L, VED 2 represents a volumetric energy density of the second-type battery cell, in Wh/L, ΔF 1 represents an expansion force change rate of the first-type battery cell, in Newton/cycle, and ΔF 2 represents an expansion force change rate of the second-type battery cell, in Newton/cycle, the expansion force change rate is an average expansion force change ΔF/500 after 500 cycles of charging and discharging of a battery cell at 25°C and 0.33 C 0 rate (C 0 represents a nominal capacity of the battery cell) within an upper cut-off voltage and lower cut-off voltage range of the battery cell, as determined according to the description and the ΔF is a change value of pressure of the battery cell detected by a sensor of a detection device at the 500th cycle and at the beginning; wherein, the n first-type battery cells and the m second-type battery cells are electrically connected, and the electrical connection comprises at least a series connection.
A method, comprising: measuring values of a radio frequency signal that comprises a forward signal and a reflected signal, wherein the reflected signal is a reflected version of the forward signal in a cable/connector system; inputting the measured values into a VSWR apparatus; characterized by: mathematically rotating in phase, in the VSWR apparatus, a complex form of the forward signal to obtain a rotated forward signal; sampling a real part of the rotated forward signal; cross correlating the sample of the real part of the rotated forward signal against a sample of a real part of the reflected signal; applying the rotation in phase over equally spaced intervals spanning one complete cycle; taking an absolute value of a result of each cross correlation; determining the mean of the absolute values; associating the mean value with a return loss of the cable/connector system; and sending the mean value from the VSWR apparatus to an alarm actuator and activating the alarm based on the mean value in relation to a threshold. measuring values of a radio frequency signal that comprises a forward signal and a reflected signal, wherein the reflected signal is a reflected version of the forward signal in a cable/connector system; inputting the measured values into a VSWR apparatus; characterized by: mathematically rotating in phase, in the VSWR apparatus, a complex form of the forward signal to obtain a rotated forward signal; sampling a real part of the rotated forward signal; cross correlating the sample of the real part of the rotated forward signal against a sample of a real part of the reflected signal; applying the rotation in phase over equally spaced intervals spanning one complete cycle; taking an absolute value of a result of each cross correlation; determining the mean of the absolute values; associating the mean value with a return loss of the cable/connector system; and sending the mean value from the VSWR apparatus to an alarm actuator and activating the alarm based on the mean value in relation to a threshold. mathematically rotating in phase, in the VSWR apparatus, a complex form of the forward signal to obtain a rotated forward signal; sampling a real part of the rotated forward signal; cross correlating the sample of the real part of the rotated forward signal against a sample of a real part of the reflected signal; applying the rotation in phase over equally spaced intervals spanning one complete cycle; taking an absolute value of a result of each cross correlation; determining the mean of the absolute values; associating the mean value with a return loss of the cable/connector system; and sending the mean value from the VSWR apparatus to an alarm actuator and activating the alarm based on the mean value in relation to a threshold.
A bimodal polyethylene composition having a density from 0.934 to 0.940 g/cm 3, a melt index I 2 determined according to ASTM D 1238 (2.16 kg 190°C--I 2) from 4.0 to 7.0 g/10 min, and I 21 determined according to ASTM D 1238 (21.6 kg 190°C--I 21) from 140 to 170 g/10 min, an I 21 /I 2 from 27 to 36, a bent strip ESCR as determined by ASTM D 1693 in 100% octoxynol-9 for conditions A and B of greater than 1,000 hours, a bent strip ESCR as determined by ASTM D1693 in 10% octoxyn 1-9 for conditions B10 of greater than 70 hours, a number average molecular weight (Mn) from 11,000 to 35,000 as determined by GPC, a weight average molecular weight (Mw) from 55,000 to 82,000 as determined by GPC, an overall Mw/Mn from 2.2 to 2.6, comprising from 4 to 5 wt.% of one or more C 4-8 alpha olefin comonomers as determined by FTIR which when de-convoluted into two components consists of: (i) from 20 to 45 wt.% of a first component consisting of from 1 to 25 wt.% of one or more C 4-8 alpha olefin comonomers and the balance ethylene, said component having a density as determined according to ASTM D 792 from 0.915 to 0.925 g/cm 3; a weight average molecular weight (Mw) from 180,000 to 220,000 g/mol, a Mw/Mn of from 2 to 3; and (ii) from 80 to 55 wt.% of a second component comprising one or more of C 4-8 alpha olefin comonomers and the balance ethylene said component having a density as determined according to ASTM D 792 from 0.940 to 0.945 g/cm 3, a weight average molecular weight (Mw) from 30,000 to 50,000, and a Mw/Mn of from 2 to 3.
A lithium ion secondary battery which comprises a positive electrode and a negative electrode, wherein the negative electrode includes a negative electrode collector and a negative electrode active material layer, and the negative electrode collector comprises a base material, which is formed of aluminum foil, and a resin film which has a thickness of 0.01 to 5 μm, includes a polysaccharide and a conductive material, and does not allow a nonaqueous electrolyte to permeate therethrough.
Method for providing panels, in particular floor panels, - in which a supporting material (6, 182) is provided, - in which the supporting material (6,182) is separated in panel form, - in which a decor (14, 25; 26,90,183, 215) is applied on the supporting material (6, 182) and - in which the supporting material (6, 182) is temporarily stored in a storage facility (19, 82, 212) after the separation in panel form and before the completion of the decor (14, 25; 26,90,183, 215), characterised in that - after the temporary storage the supporting material (6, 182) is provided with a footfall sound insulation and/or a latent adhesive layer. - in which a supporting material (6, 182) is provided, - in which the supporting material (6,182) is separated in panel form, - in which a decor (14, 25; 26,90,183, 215) is applied on the supporting material (6, 182) and - in which the supporting material (6, 182) is temporarily stored in a storage facility (19, 82, 212) after the separation in panel form and before the completion of the decor (14, 25; 26,90,183, 215), characterised in that - after the temporary storage the supporting material (6, 182) is provided with a footfall sound insulation and/or a latent adhesive layer.
A mobile emergency cooling apparatus for spent fuel pool of nuclear power plant, comprising: a power equipment, a circulating cooling pump, a cooling device, an inlet pipeline, an outlet pipeline, and a mobile carrier platform, wherein the power equipment, the circulating cooling pump and the cooling device are connected in sequence and are arranged on the same mobile carrier platform, an inlet of the circulating cooling pump is adapted to be connected to a water guide pipeline connected to a water intake of an original cooling system of spent fuel pool through the inlet pipeline, an outlet of the circulating cooling pump is connected to an inlet of the cooling device, an outlet of the cooling device is connected to the outlet pipeline, which is adapted to be connected to a water return pipeline to return cooled pool water to the spent fuel pool; the apparatus further comprising a backflow pipeline connected between the outlet pipeline and the inlet pipeline; wherein the apparatus is adapted such, that when the original cooling system of the spent fuel pool fails, the power equipment drives the circulating cooling pump and the cooling device to work, wherein in use, the circulating cooling pump delivers the introduced pool water from the spent fuel pool to the cooling device, the cooling device cools the pool water, and after cooling, part of the pool water is returned to the inlet pipeline through the backflow pipeline, and the remaining part of the pool water is returned to the spent fuel pool.