mhurhangee/ep-ind-claims huggingface dataset:
A portable clinical system for in vitro analysis, the system comprising: a test device; and an analyzer comprising: a port configured to receive a test device; and a computing device configured to: initiate a test cycle of the test device; determine spatial orientation of the analyzer during the test cycle of the test device; compare the determined spatial orientation to a threshold operating spatial plane for the test device; provide an alert prompting a user to take corrective action during the test cycle, when the determined spatial orientation exceeds the threshold operating spatial plane, wherein the alert includes required movement of the analyzer with regard to the threshold operating spatial plane in order to prompt the user into correcting the spatial orientation of the analyzer back within the threshold operating spatial plane during the test cycle, further characterised in that: the computing device is configured to correct the result of the analytical test, when the determined spatial orientation exceeds the threshold operating spatial plane. a test device; and an analyzer comprising: a port configured to receive a test device; and a computing device configured to: initiate a test cycle of the test device; determine spatial orientation of the analyzer during the test cycle of the test device; compare the determined spatial orientation to a threshold operating spatial plane for the test device; provide an alert prompting a user to take corrective action during the test cycle, when the determined spatial orientation exceeds the threshold operating spatial plane, a port configured to receive a test device; and a computing device configured to: initiate a test cycle of the test device; determine spatial orientation of the analyzer during the test cycle of the test device; compare the determined spatial orientation to a threshold operating spatial plane for the test device; provide an alert prompting a user to take corrective action during the test cycle, when the determined spatial orientation exceeds the threshold operating spatial plane, initiate a test cycle of the test device; determine spatial orientation of the analyzer during the test cycle of the test device; compare the determined spatial orientation to a threshold operating spatial plane for the test device; provide an alert prompting a user to take corrective action during the test cycle, when the determined spatial orientation exceeds the threshold operating spatial plane, the computing device is configured to correct the result of the analytical test, when the determined spatial orientation exceeds the threshold operating spatial plane.
A tripod type constant velocity universal joint comprising: an outer joint member that includes track grooves extending in an axial direction at three locations in a circumferential direction, and has a pair of roller guide surfaces on which the track grooves are arranged so as to face each other in the circumferential direction; a tripod member that includes three leg shafts protruding in a radial direction; a roller that is inserted into the track groove; and an inner ring that is fitted onto the leg shaft, and rotatably supports the roller, wherein a roller unit including the roller and the inner ring is able to swing with respect to the leg shaft, the roller unit is configured to be movable in an axial direction of the outer joint member along the roller guide surface, a hardened layer is formed on a surface of each leg shaft of the tripod member by carburizing, hardening, and tempering, characterized in that the tripod member is made of a steel material having a carbon content of 0.23% to 0.44%, an effective hardened layer depth of the hardened layer by using, as a Ts torque, 0.3 times a minimum static torsional torque at which a shaft coupled to the tripod member causes torsional fracture and 600HV as limit hardness is equal to or greater than a maximum shear stress depth when the Ts torque is applied, and an internal hardness of the tripod member is 513Hv or more. an outer joint member that includes track grooves extending in an axial direction at three locations in a circumferential direction, and has a pair of roller guide surfaces on which the track grooves are arranged so as to face each other in the circumferential direction; a tripod member that includes three leg shafts protruding in a radial direction; a roller that is inserted into the track groove; and an inner ring that is fitted onto the leg shaft, and rotatably supports the roller, wherein a roller unit including the roller and the inner ring is able to swing with respect to the leg shaft, the roller unit is configured to be movable in an axial direction of the outer joint member along the roller guide surface, a hardened layer is formed on a surface of each leg shaft of the tripod member by carburizing, hardening, and tempering, the tripod member is made of a steel material having a carbon content of 0.23% to 0.44%, an effective hardened layer depth of the hardened layer by using, as a Ts torque, 0.3 times a minimum static torsional torque at which a shaft coupled to the tripod member causes torsional fracture and 600HV as limit hardness is equal to or greater than a maximum shear stress depth when the Ts torque is applied, and
A hydraulic pump control apparatus of a construction machine, comprising: a pump control unit for controlling a discharge pressure of a hydraulic pump driven by an engine, wherein the hydraulic pump includes a swash plate having a swash plate angle sensor, and a pump discharge flow rate (Qp) of the hydraulic pump is varied according to an inclination angle of the swash plate; wherein the pump control unit comprises: a pressure setting value calculating unit configured to calculate a pressure setting value (Ps) based on an engine output torque estimating value or an engine RPM; a pressure minimum value calculating unit configured to calculate a pressure command value (Pcmd) based on the pump discharge flow rate (Qp) calculated by using the detected swash plate angle; and a breakdown treating unit configured to select one of the pressure setting value (Ps) and the pressure command value (Pcmd) according to a breakdown of the swash plate angle sensor to output the selected value, and in the selection of the pressure, the pressure command value (Pcmd) is output during a normal operation of the swash plate angle sensor, and the pressure setting value (Ps) is output during a breakdown of the swash plate angle sensor. a pump control unit for controlling a discharge pressure of a hydraulic pump driven by an engine, wherein the hydraulic pump includes a swash plate having a swash plate angle sensor, and a pump discharge flow rate (Qp) of the hydraulic pump is varied according to an inclination angle of the swash plate; wherein the pump control unit comprises: a pressure setting value calculating unit configured to calculate a pressure setting value (Ps) based on an engine output torque estimating value or an engine RPM; a pressure minimum value calculating unit configured to calculate a pressure command value (Pcmd) based on the pump discharge flow rate (Qp) calculated by using the detected swash plate angle; and a breakdown treating unit configured to select one of the pressure setting value (Ps) and the pressure command value (Pcmd) according to a breakdown of the swash plate angle sensor to output the selected value, and in the selection of the pressure, the pressure command value (Pcmd) is output during a normal operation of the swash plate angle sensor, and the pressure setting value (Ps) is output during a breakdown of the swash plate angle sensor. a pressure setting value calculating unit configured to calculate a pressure setting value (Ps) based on an engine output torque estimating value or an engine RPM; a pressure minimum value calculating unit configured to calculate a pressure command value (Pcmd) based on the pump discharge flow rate (Qp) calculated by using the detected swash plate angle; and a breakdown treating unit configured to select one of the pressure setting value (Ps) and the pressure command value (Pcmd) according to a breakdown of the swash plate angle sensor to output the selected value, and in the selection of the pressure, the pressure command value (Pcmd) is output during a normal operation of the swash plate angle sensor, and the pressure setting value (Ps) is output during a breakdown of the swash plate angle sensor.
A fiber comprising: a first cladding region comprising a first cladding material having a first index of refraction, n1; cladding features disposed in said first cladding region, said cladding features comprising a second cladding material having a second index of refraction, n2, wherein n2 is less than n1, and a relative refractive index difference characterized by (ni-n2)/ni is less than 4.5 x 10 -3; a core region at least partially surrounded by said cladding features and having a core diameter in the range from 30 μm to 200 μm, wherein at least a portion of the core region is rare-earth doped, the fiber further comprising: a pump cladding disposed beyond said first cladding region and wherein said first cladding region and said cladding features configured such that said core region propagates at least one lower order mode having a wavelength, while limiting propagation of at least one higher order mode having the wavelength by providing said at least one higher order mode with a higher loss than the at least one lower order mode at the wavelength. a first cladding region comprising a first cladding material having a first index of refraction, n1; cladding features disposed in said first cladding region, said cladding features comprising a second cladding material having a second index of refraction, n2, wherein n2 is less than n1, and a relative refractive index difference characterized by (ni-n2)/ni is less than 4.5 x 10 -3; a core region at least partially surrounded by said cladding features and having a core diameter in the range from 30 μm to 200 μm, wherein at least a portion of the core region is rare-earth doped, the fiber further comprising: a pump cladding disposed beyond said first cladding region and wherein said first cladding region and said cladding features configured such that said core region propagates at least one lower order mode having a wavelength, while limiting propagation of at least one higher order mode having the wavelength by providing said at least one higher order mode with a higher loss than the at least one lower order mode at the wavelength. a pump cladding disposed beyond said first cladding region and wherein said first cladding region and said cladding features configured such that said core region propagates at least one lower order mode having a wavelength, while limiting propagation of at least one higher order mode having the wavelength by providing said at least one higher order mode with a higher loss than the at least one lower order mode at the wavelength.
A polycarbonate composition comprising: 40 to 88.9 weight percent of a polycarbonate; 10 to 30 weight percent of a polycarbonate-siloxane copolymer having a siloxane content of 5 to 40 weight percent, based on the total weight of the polycarbonate-siloxane copolymer; 0.1 to 5 weight percent of a triazine-containing UV absorbing agent; and 1 to 10 weight percent of a phosphazene flame retardant; wherein weight percent of each component is based on the total weight of the composition. 40 to 88.9 weight percent of a polycarbonate; 10 to 30 weight percent of a polycarbonate-siloxane copolymer having a siloxane content of 5 to 40 weight percent, based on the total weight of the polycarbonate-siloxane copolymer; 0.1 to 5 weight percent of a triazine-containing UV absorbing agent; and 1 to 10 weight percent of a phosphazene flame retardant; wherein weight percent of each component is based on the total weight of the composition.
A method performed by a user equipment, UE, comprising: receiving a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH; and identifying cell identification information by detecting a sequence of the PSS and a sequence of the SSS, and identifying a master information block, MIB, from the PBCH, wherein the MIB includes information indicating a subcarrier spacing value for system information, wherein the sequence of the PSS and the sequence of the SSS are used commonly for different subcarrier spacing values, wherein bandwidths of the PSS, the SSS, and the PBCH linearly scale with a subcarrier spacing value applied to the PSS, the SSS, and the PBCH, and wherein the subcarrier spacing value for system information is selected between a plurality of possible subcarrier spacing values for system information, and wherein the plurality of possible subcarrier spacing values for system information are associated with the subcarrier spacing value applied to the PSS, the SSS, and the PBCH. receiving a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH; and identifying cell identification information by detecting a sequence of the PSS and a sequence of the SSS, and identifying a master information block, MIB, from the PBCH, wherein the MIB includes information indicating a subcarrier spacing value for system information, wherein the sequence of the PSS and the sequence of the SSS are used commonly for different subcarrier spacing values, wherein bandwidths of the PSS, the SSS, and the PBCH linearly scale with a subcarrier spacing value applied to the PSS, the SSS, and the PBCH, and wherein the subcarrier spacing value for system information is selected between a plurality of possible subcarrier spacing values for system information, and wherein the plurality of possible subcarrier spacing values for system information are associated with the subcarrier spacing value applied to the PSS, the SSS, and the PBCH.
A structural glazing construction comprising a support structure on which at least one insulating glass pane is fixed, whereby the insulating glass pane comprises one first and one second glass pane (6, 7) which are connected to each other at the edges by means of a spacing element, whereby the spacing element comprises a groove which is open to the outside and whereby the space between the walls of the grove and the glass pane (6, 7) is filled with a sealant, and whereby a glass holder is provided which engages with a U-shaped portion in the groove of the spacing element and which partially encompasses with an angle bracket a front end and an outside of a glass pane whereby the glass holder is fixed to the support structure by means of a fixing means (11, 12), characterized in that the glass holder engages with at least one protrusion (22, 25, 27) with the sealant between the walls of the groove and a glass pane (6, 7).
A data transmission method, wherein the method comprises: performing, by a first terminal, data transmission to a second terminal by using a first communication link; detecting, by the first terminal, a rate of the data transmission; determining, by the first terminal according to the rate of the data transmission, whether a preset rate condition is met; when the rate of the data transmission meets the preset rate condition, instructing, by the first terminal, the second terminal to perform data transmission to the first terminal by using a second communication link; and performing, by the first terminal, data transmission to the second terminal by using the second communication link; wherein when the first communication link is specifically a Wireless Fidelity, WiFi, communication link, the second communication link is specifically a Bluetooth communication link, and that the rate of the data transmission meets the preset rate condition is specifically that the rate of the data transmission is lower than a low rate threshold; wherein when the first communication link is specifically a Bluetooth communication link, the second communication link is specifically a WiFi communication link, and that the rate of the data transmission meets the preset rate condition is specifically that the rate of the data transmission is higher than a high rate threshold; wherein the high rate threshold is higher than the low rate threshold. performing, by a first terminal, data transmission to a second terminal by using a first communication link; detecting, by the first terminal, a rate of the data transmission; determining, by the first terminal according to the rate of the data transmission, whether a preset rate condition is met; when the rate of the data transmission meets the preset rate condition, instructing, by the first terminal, the second terminal to perform data transmission to the first terminal by using a second communication link; and performing, by the first terminal, data transmission to the second terminal by using the second communication link; wherein when the first communication link is specifically a Wireless Fidelity, WiFi, communication link, the second communication link is specifically a Bluetooth communication link, and that the rate of the data transmission meets the preset rate condition is specifically that the rate of the data transmission is lower than a low rate threshold; wherein when the first communication link is specifically a Bluetooth communication link, the second communication link is specifically a WiFi communication link, and that the rate of the data transmission meets the preset rate condition is specifically that the rate of the data transmission is higher than a high rate threshold; wherein the high rate threshold is higher than the low rate threshold.
A method for treating carbon-containing waste that may comprise mineral fillers and/or potential contaminants, comprising: - preparing a molten glass bath at a temperature between 1100°C and 1600°C; - loading the waste to be treated into said molten glass bath; - injecting a supporter of combustion and optionally a fuel under pressure into said molten glass bath by means of at least one lance (13, 15), one end of which is immersed in said bath, said supporter of combustion being introduced in a molar amount less than the molar amount of the carbon-containing compounds, thus causing combustion of said waste and generation of hot synthesis gases; characterized in that it further comprises: - implementing heat exchange between a heat-transfer fluid and the hot synthesis gases in conditions allowing simultaneous recovery of at least part of their heat energy and at least part of the heat energy released by their combustion, air being injected sequentially into said gases during said heat exchange to cause self-ignition of the mixture of said gases and air, each injection increasing the degree of combustion, said air being injected in an amount such that the temperature generated by self-ignition remains below 1050°C in order to limit the formation of nitrogen oxides. - preparing a molten glass bath at a temperature between 1100°C and 1600°C; - loading the waste to be treated into said molten glass bath; - injecting a supporter of combustion and optionally a fuel under pressure into said molten glass bath by means of at least one lance (13, 15), one end of which is immersed in said bath, said supporter of combustion being introduced in a molar amount less than the molar amount of the carbon-containing compounds, thus causing combustion of said waste and generation of hot synthesis gases; characterized in that it further comprises: - implementing heat exchange between a heat-transfer fluid and the hot synthesis gases in conditions allowing simultaneous recovery of at least part of their heat energy and at least part of the heat energy released by their combustion, air being injected sequentially into said gases during said heat exchange to cause self-ignition of the mixture of said gases and air, each injection increasing the degree of combustion, said air being injected in an amount such that the temperature generated by self-ignition remains below 1050°C in order to limit the formation of nitrogen oxides.
A continuous process for the production of a polyoxyalkylene polyether polyol having a hydroxyl content of from 3.4 to 12.1 % by weight comprising: (a) establishing oxyalkylation conditions in a continuous oxyalkylation reactor in the presence of a double metal cyanide catalyst; (b) continuously introducing alkylene oxide and a low molecular weight starter into the continuous oxyalkylation reactor, wherein the starter has a number average molecular weight of from 50 to 250; (c) recovering a partially oxyalkylated polyether polyol from the continuous oxyalkylation reactor; wherein (i) the oxyalkylation in the continuous oxyalkylation reactor occurs at a sufficiently high pressure to prevent deactivation of the DMC catalyst; i.e. at least at 310 kPa (45 psia), (ii) the concentration of unreacted alkylene oxide in the contents of the continuous reactor is maintained at a level of from 1 to 3% by weight; and (iii) the hydroxyl content of the reactor contents is maintained at 3.4 to 12.1% by weight; and (d) allowing further reaction of the partially oxyalkylated polyether polyol which is recovered from the continuous oxyalkylation reactor to occur until the unreacted alkylene oxide content of the mixture is reduced to 0.001% or less by weight, wherein said further reaction of the partially oxyalkylated polyether polyol occurs isothermally. (a) establishing oxyalkylation conditions in a continuous oxyalkylation reactor in the presence of a double metal cyanide catalyst; (b) continuously introducing alkylene oxide and a low molecular weight starter into the continuous oxyalkylation reactor, wherein the starter has a number average molecular weight of from 50 to 250; (c) recovering a partially oxyalkylated polyether polyol from the continuous oxyalkylation reactor; wherein (i) the oxyalkylation in the continuous oxyalkylation reactor occurs at a sufficiently high pressure to prevent deactivation of the DMC catalyst; i.e. at least at 310 kPa (45 psia), (ii) the concentration of unreacted alkylene oxide in the contents of the continuous reactor is maintained at a level of from 1 to 3% by weight; and (iii) the hydroxyl content of the reactor contents is maintained at 3.4 to 12.1% by weight; and (d) allowing further reaction of the partially oxyalkylated polyether polyol which is recovered from the continuous oxyalkylation reactor to occur until the unreacted alkylene oxide content of the mixture is reduced to 0.001% or less by weight, wherein said further reaction of the partially oxyalkylated polyether polyol occurs isothermally.
Holder for fixing a component, in particular a fuel distributor, to an internal combustion engine, having a base which can be connected to the component, a slotted sleeve being provided, which is connected to the base, and that the base can be supported on the internal combustion engine via the slotted sleeve, characterized in that the base has a first holding piece and in that the slotted sleeve is connected to the holding piece of the base, and in that the base has a further holding piece and a further sleeve, in that the holding piece is connected to the further holding piece via the sleeve, and in that a passage opening extends along a fixing axis through the further holding piece, the further sleeve, the first holding piece and the slotted sleeve, wherein a fixing means can be guided along the fixing axis through the passage opening in order to connect the base indirectly to the internal combustion engine, and in that the slotted sleeve has a connecting surface, which has a spot connection to the first holding piece, and has an annular contact surface interrupted by a slot and opposite the connecting surface, with which the slotted sleeve rests on a surface of the internal combustion engine when the base is connected indirectly to the internal combustion engine.