mhurhangee/ep-ind-claims huggingface dataset:
A process for synthesis of methyl carbamate and dimethyl carbonate in reactor comprising: a. feeding liquid reactant feed comprising of urea and methanol or methyl carbamate and methanol into a reactor vessel, selected from packed bed reactors and bubble column reactors having counter-current and cross-current stripping, and containing homogeneous catalyst soluble in the reaction mixture, and allowing to react; b. passing the inert gas or superheated methanol vapours into said reactor vessel through inlet valve by regulating the pressure to ensure positive flow of the inert gas and stripping ammonia and DMC formed during the reaction through the outlet port; c. passing the product gases collected from the outlet port through condenser and gas-liquid separator; d. removing liquid phase products from the reactor through liquid outlet post; e. optionally, recycling methanol or gaseous product into the reactor vessel for further reaction through inlet port; wherein the reaction is carried out in presence of the homogeneous catalyst Sm(NO 3) 3. a. feeding liquid reactant feed comprising of urea and methanol or methyl carbamate and methanol into a reactor vessel, selected from packed bed reactors and bubble column reactors having counter-current and cross-current stripping, and containing homogeneous catalyst soluble in the reaction mixture, and allowing to react; b. passing the inert gas or superheated methanol vapours into said reactor vessel through inlet valve by regulating the pressure to ensure positive flow of the inert gas and stripping ammonia and DMC formed during the reaction through the outlet port; c. passing the product gases collected from the outlet port through condenser and gas-liquid separator; d. removing liquid phase products from the reactor through liquid outlet post; e. optionally, recycling methanol or gaseous product into the reactor vessel for further reaction through inlet port; wherein the reaction is carried out in presence of the homogeneous catalyst Sm(NO 3) 3.
Method for operating a household appliance, with which an operating condition of the household appliance is set by means of a control unit outside of the household appliance, wherein in order to set an operating condition, a check is carried out to determine whether the control unit is arranged in a communication region relative to the household appliance, characterised in that if this is the case, an accurate relative reference position of the control unit to the household appliance in the communication region is determined, wherein a position of the control unit placed on the household appliance is defined as a relative reference position or a position of the control unit placed on a worktop adjoining the household appliance is defined and/or the relative reference position is predetermined by a horizontal orientation of a plane, in which the plate-shaped control unit extends, wherein on the basis of the relative reference position, at least one occurring relative movement of the control unit in relation to the operating condition setting of the household appliance is evaluated as a function of this relative reference position and the operating condition corresponding to the relative movement is set.
A method of controlling an exothermic chemical reaction, comprising: measuring a temperature of a first reactant flowing at a first flow rate; subsequently contacting the first reactant with a second reactant flowing at a second flow rate, the contacting occurring under conditions that cause the first and second reactants to react with one another in an exothermic chemical reaction and form a reaction product, wherein the first reactant comprises ammonia, the second reactant comprises sodium hypochlorite, and the reaction product comprises monochloramine; measuring the temperature of the reaction product in, or downstream of, a static in-line mixer or in a reactor; determining the temperature difference between the measured temperature of the first reactant and the measured temperature of the reaction product; adjusting the flow rate of at least one of the first reactant and the second reactant if the temperature difference reaches a pre-determined temperature difference; and combining the reaction product with a source of industrial water, process water, cooling tower water, potable water, or pulp and paper materials. measuring a temperature of a first reactant flowing at a first flow rate; subsequently contacting the first reactant with a second reactant flowing at a second flow rate, the contacting occurring under conditions that cause the first and second reactants to react with one another in an exothermic chemical reaction and form a reaction product, wherein the first reactant comprises ammonia, the second reactant comprises sodium hypochlorite, and the reaction product comprises monochloramine; measuring the temperature of the reaction product in, or downstream of, a static in-line mixer or in a reactor; determining the temperature difference between the measured temperature of the first reactant and the measured temperature of the reaction product; adjusting the flow rate of at least one of the first reactant and the second reactant if the temperature difference reaches a pre-determined temperature difference; and combining the reaction product with a source of industrial water, process water, cooling tower water, potable water, or pulp and paper materials.
A staple cartridge assembly, comprising: a cartridge body comprising a deck and a longitudinal slot configured to receive a cutting member; a plurality of staples; and an implantable layer positioned over said deck, wherein said implantable layer comprises a top surface, a bottom surface and a plurality of interwoven fibers characterized in that each said fiber comprises a strand having a kinked configuration, wherein said kinked fibers are interwoven into a first woven zone and a second woven zone, wherein said first woven zone has a first density and said second woven zone has a second density, and wherein said first density is less than said second density, and wherein said second woven zone is aligned with said longitudinal slot, said first woven zone is laterally offset from said second woven zone and said first and second woven zones each extend between said bottom surface and said top surface of said implantable layer. a cartridge body comprising a deck and a longitudinal slot configured to receive a cutting member; a plurality of staples; and an implantable layer positioned over said deck, wherein said implantable layer comprises a top surface, a bottom surface and a plurality of interwoven fibers characterized in that each said fiber comprises a strand having a kinked configuration, wherein said kinked fibers are interwoven into a first woven zone and a second woven zone, wherein said first woven zone has a first density and said second woven zone has a second density, and wherein said first density is less than said second density, and wherein said second woven zone is aligned with said longitudinal slot, said first woven zone is laterally offset from said second woven zone and said first and second woven zones each extend between said bottom surface and said top surface of said implantable layer.
A method performed by a wireless device in a wireless communication system, the method comprising: establishing a dual connectivity, DC, with a first carrier group, CG, and a second CG, wherein the first CG is related to a first processing time and the second CG is related to a second processing time; determining whether or not an uplink, UL, transmission is performed at a specific time point in the first CG; determining a transmission power at the specific time point in the second CG based on a determination that the UL transmission is not performed at the specific time point in the first CG; and performing an UL transmission at the specific time point in the second CG based on the transmission power, wherein: in the case the second processing time is longer than the first processing time, the transmission power is determined such that the transmission power is less than or equal to a maximum power of the wireless device minus a guaranteed power for the first CG; and in the case the second processing time is shorter than the first processing time, the transmission power is determined such that the transmission power exceeds the maximum power of the wireless device minus the guaranteed power for the first CG. establishing a dual connectivity, DC, with a first carrier group, CG, and a second CG, wherein the first CG is related to a first processing time and the second CG is related to a second processing time; determining whether or not an uplink, UL, transmission is performed at a specific time point in the first CG; determining a transmission power at the specific time point in the second CG based on a determination that the UL transmission is not performed at the specific time point in the first CG; and performing an UL transmission at the specific time point in the second CG based on the transmission power, wherein: in the case the second processing time is longer than the first processing time, the transmission power is determined such that the transmission power is less than or equal to a maximum power of the wireless device minus a guaranteed power for the first CG; and in the case the second processing time is shorter than the first processing time, the transmission power is determined such that the transmission power exceeds the maximum power of the wireless device minus the guaranteed power for the first CG. in the case the second processing time is longer than the first processing time, the transmission power is determined such that the transmission power is less than or equal to a maximum power of the wireless device minus a guaranteed power for the first CG; and in the case the second processing time is shorter than the first processing time, the transmission power is determined such that the transmission power exceeds the maximum power of the wireless device minus the guaranteed power for the first CG.
A casing of an electronic device, comprising: a metallic housing, having an inner surface and an outer surface opposite to the inner surface, and also having a back area and at least one side area, wherein the inner surface, the outer surface, the back area and the at least one side area form at least part of the metallic housing, the inner surface being substantially a recessed structure covering the entire back area and side area, and the outer surface covering the back area and the side area on the opposite side from the inner surface, and the metallic housing having a first gap communicating the inner surface and the outer surface, wherein a first area of the metallic housing next to the first gap at a side area of the metallic housing is formed as one piece; and a first non-conductive spacer, at least partially disposed in the first gap of the metallic housing and extended from the back area to the at least one side area. a metallic housing, having an inner surface and an outer surface opposite to the inner surface, and also having a back area and at least one side area, wherein the inner surface, the outer surface, the back area and the at least one side area form at least part of the metallic housing, the inner surface being substantially a recessed structure covering the entire back area and side area, and the outer surface covering the back area and the side area on the opposite side from the inner surface, and the metallic housing having a first gap communicating the inner surface and the outer surface, wherein a first area of the metallic housing next to the first gap at a side area of the metallic housing is formed as one piece; and a first non-conductive spacer, at least partially disposed in the first gap of the metallic housing and extended from the back area to the at least one side area.
An optical glass comprising 0.5- 6 wet. - % SiO 2, 20 -30 wit.-% B 2 O 3, the sum of (SiO 2 + B 2 O 3) is 23-35 wt.-%, 2- 8 wt.-% ZnO, 30-50 wt.-% La 2 O 3, 1-15 wt.-% Gd 2 O 3, 0-10 wt.-% Y 2 O 3, the sum of (La 2 O 3 + Gd 2 O 3 + Y 2 O 3) is 45-60 wt. -%, 4- 7 wt.-% ZrO 2 and 4-10 wt.-% Nb 2 O 5, 0- 1 wt.-% of Sb 2 O 3, the total content of these components is ≥ 98 wt.-%; the weight ratio of (La 2 O 3 + Gd 2 O 3 + Y 2 O 3) / (ZnO) is in the range of 9.5-25; the weight ratio of (ZnO) / (Nb 2 O 5) is in the range of 1/1.30-1/4.2; the glass contains no Ta 2 O 5 or PbO; the glass has a refractive index [nd] of 1.820-1.850 and an Abbe's number [vd] of 42.0-44.0; and the glass has a liquidus temperature of ≤ 1,200°C.
A recording device comprising: a recording unit configured to perform recording on a medium; a holding unit configured to hold a roll body around which the medium is wound; a transport unit configured to transport the medium unwound from the roll body; a tension bar configured to come into contact with a back surface (Mb) of the medium and apply tension to the medium, between the holding portion and the recording unit; and a blowing unit configured to blow a gas onto a front surface (Ma) of the medium, wherein the blowing unit blows the gas toward the tension bar, and the blowing unit includes a duct through which the gas is configured to pass, and a plurality of fans accommodated inside the duct and aligned in a duct width direction intersecting an airflow direction in which the gas flows, and the duct includes a nozzle configured to blow the gas, and a rectifying region (53, 54), which is positioned between the plurality of fans and the nozzle in the airflow direction, and in which a duct inner height intersecting the airflow direction and the duct width direction decreases in a continuous or a stepwise manner toward the nozzle in the airflow direction. a recording unit configured to perform recording on a medium; a holding unit configured to hold a roll body around which the medium is wound; a transport unit configured to transport the medium unwound from the roll body; a tension bar configured to come into contact with a back surface (Mb) of the medium and apply tension to the medium, between the holding portion and the recording unit; and a blowing unit configured to blow a gas onto a front surface (Ma) of the medium, wherein the blowing unit blows the gas toward the tension bar, and the blowing unit includes a duct through which the gas is configured to pass, and a plurality of fans accommodated inside the duct and aligned in a duct width direction intersecting an airflow direction in which the gas flows, and the duct includes a nozzle configured to blow the gas, and a rectifying region (53, 54), which is positioned between the plurality of fans and the nozzle in the airflow direction, and in which a duct inner height intersecting the airflow direction and the duct width direction decreases in a continuous or a stepwise manner toward the nozzle in the airflow direction.
A system for storing and generating energy, where a pressure generated by a working fluid is released into a liquid circuit which in turn moves a liquid turbine to generate energy, the system comprising: a first main tank of liquid; a second main tank of liquid; an auxiliary tank of liquid; and whereby the liquid turbine is located between the first and second main tanks, and at a lower level than the bottom of the first and second main tanks and the auxiliary tank, to ensure that the pressure inside the tanks forces the liquid through the turbine and a network of pipelines with their respective valves, including inlet valves, outlet valves, control valves as well as ventilation valves; where the operation is performed in short cycles and at a constant working pressure by means of a control system acting on at least one pressure regulating valve, which provides the working pressure of the system; characterized in that the auxiliary tank is arranged to operate and feed the turbine only intermittently, between cycles, while the system is changing its operating direction in one direction or in the opposite direction, to give the system time to restart the cycle without loss of energy generation. a first main tank of liquid; a second main tank of liquid; an auxiliary tank of liquid; and whereby the liquid turbine is located between the first and second main tanks, and at a lower level than the bottom of the first and second main tanks and the auxiliary tank, to ensure that the pressure inside the tanks forces the liquid through the turbine and a network of pipelines with their respective valves, including inlet valves, outlet valves, control valves as well as ventilation valves; where the operation is performed in short cycles and at a constant working pressure by means of a control system acting on at least one pressure regulating valve, which provides the working pressure of the system; characterized in that the auxiliary tank is arranged to operate and feed the turbine only intermittently, between cycles, while the system is changing its operating direction in one direction or in the opposite direction, to give the system time to restart the cycle without loss of energy generation.
A method for introducing an agent into a cell in vitro, comprising providing a preparation comprising the cell and agent, applying to said preparation nanosecond pulse electric fields having a duration of 1 nanosecond to 1000 nanoseconds and an electric field intensity from about 1 kV/cm to about 1000 kV/cm, and subsequently applying to said preparation one or more long electric pulses having a duration of 1 microsecond to 20 milliseconds and an electric field intensity from about 0.1 kV/cm to about 5 kV/cm, thereby facilitating the entry of the agent into the nucleus.
A method of wireless communication of a base station (102,404,1302), comprising: generating a downlink grant for a device (104,402), the downlink grant indicating to the device (104,402) subsets of uplink resources allocated for transmitting data segments and subsets of downlink resources for receiving power control commands for respective data segments, the subsets of the uplink resources being non-concurrent with the subsets of the downlink resources; and transmitting the downlink grant to the device (104,402). generating a downlink grant for a device (104,402), the downlink grant indicating to the device (104,402) subsets of uplink resources allocated for transmitting data segments and subsets of downlink resources for receiving power control commands for respective data segments, the subsets of the uplink resources being non-concurrent with the subsets of the downlink resources; and transmitting the downlink grant to the device (104,402).
A separation arrangement integrated into a tank with at least two chambers (7, 8) located one after the other and separated by a separating wall, and comprising a first inlet into the tank for food waste mixed with water and a second inlet (10, 11) into the tank, wherein the first inlet opens out into a first of the at least two chambers and wherein a second chamber is provided with an outlet, characterised in that the second inlet (10, 11) for dish washing water without food waste, opens out into the second of the at least two chambers, and in that a connection is arranged in order to allow water separated from the food waste in the first chamber to flow onwards into the second chamber and to be mixed with dish-washing water, and in that the second chamber is arranged to separate fat from water and wherein the outlet is for water separated from fat.
A method for operating a touch screen having at least one first electrode (D1 - D4) and at least one second electrode, each said at least one first electrode (D1 - D4) intersecting said at least one second electrode, wherein each intersection of said at least one first electrode and said at least one second electrode defines a touch detection node, the method comprising: selectively exciting each said at least one first electrode (D1 - D4) and thereby selectively generating an electric field about ones of said touch detection nodes corresponding to each said at least one first electrode (D1 - D4); periodically determining the capacitance about each of said touch detection nodes; transforming a rolling sample of said capacitance data for each said node from the time domain to the sequency domain using a Walsh-Hadamard Transform, said transformation yielding data in a plurality of sequency bins; analyzing for each said node the data in at least one sequency bin other than a sequency bin 0 resulting from the transformation; determining whether a touch has occurred at each said node based on the analysis; determining for each said node, with all of said nodes in an untouched state and no stimulus proximate said touch screen, a reference value in said sequency bin 0; determining for each said node a current value in said sequency bin 0; determining for each said node a delta value by subtracting said current sequency bin 0 value of said node from said reference value of said node; and entering said delta values into a matrix; applying a two-dimensional centroiding technique to said delta values in said matrix; and determining a touch location with respect to one of an x coordinate and a y coordinate of said touch screen. selectively exciting each said at least one first electrode (D1 - D4) and thereby selectively generating an electric field about ones of said touch detection nodes corresponding to each said at least one first electrode (D1 - D4); periodically determining the capacitance about each of said touch detection nodes; transforming a rolling sample of said capacitance data for each said node from the time domain to the sequency domain using a Walsh-Hadamard Transform, said transformation yielding data in a plurality of sequency bins; analyzing for each said node the data in at least one sequency bin other than a sequency bin 0 resulting from the transformation; determining whether a touch has occurred at each said node based on the analysis; determining for each said node, with all of said nodes in an untouched state and no stimulus proximate said touch screen, a reference value in said sequency bin 0; determining for each said node a current value in said sequency bin 0; determining for each said node a delta value by subtracting said current sequency bin 0 value of said node from said reference value of said node; and entering said delta values into a matrix; applying a two-dimensional centroiding technique to said delta values in said matrix; and determining a touch location with respect to one of an x coordinate and a y coordinate of said touch screen.