mhurhangee/ep-ind-claims huggingface dataset:
A separation membrane comprising: a separation functional layer composed of a polyamide; a support supporting the separation functional layer; wherein the support comprises a porous support membrane, and the thickness of the porous support membrane is in the range of 10 to 200 μm; a coating covering the separation functional layer and characterized in that the coating contains a polymer having a repeating unit represented by the following formula,,, or: wherein N + is a nitrogen atom constituting a quaternary ammonium cation, R 1 and R 2 are each independently a substituent containing a carbon atom bonded to the nitrogen atom, m and n are each independently an integer of 1 or more. a separation functional layer composed of a polyamide; a support supporting the separation functional layer; wherein the support comprises a porous support membrane, and the thickness of the porous support membrane is in the range of 10 to 200 μm; a coating covering the separation functional layer and characterized in that the coating contains a polymer having a repeating unit represented by the following formula,,, or: wherein N + is a nitrogen atom constituting a quaternary ammonium cation, R 1 and R 2 are each independently a substituent containing a carbon atom bonded to the nitrogen atom, m and n are each independently an integer of 1 or more. N + is a nitrogen atom constituting a quaternary ammonium cation, R 1 and R 2 are each independently a substituent containing a carbon atom bonded to the nitrogen atom, m and n are each independently an integer of 1 or more.
A method for installing an expansion anchor in a borehole, wherein the expansion anchor comprises a bolt with an expansion region at the frontal end and a neck region, wherein the expansion region adjoins the neck region and tapers to the neck region, an expansion sleeve at least partially surrounding the neck region, and a thread for a nut at the rear end, the method comprising the steps of a) filling into the borehole a mortar, which comprises an organic polymer adhesive and inorganic filler, b) inserting the expansion anchor into the borehole with the frontal end first, c) applying a torque to withdraw the expansion anchor a short distance out of the borehole, such that the expansion sleeve is radially expanded, and d) hardening and/or curing the mortar to obtain the installed expansion anchor, wherein the mortar comprises ≤ 72.5 wt.% inorganic filler, based on the total weight of the mortar. wherein the expansion anchor comprises a bolt with an expansion region at the frontal end and a neck region, wherein the expansion region adjoins the neck region and tapers to the neck region, an expansion sleeve at least partially surrounding the neck region, and a thread for a nut at the rear end, a bolt with an expansion region at the frontal end and a neck region, wherein the expansion region adjoins the neck region and tapers to the neck region, an expansion sleeve at least partially surrounding the neck region, and a thread for a nut at the rear end, the method comprising the steps of a) filling into the borehole a mortar, which comprises an organic polymer adhesive and inorganic filler, b) inserting the expansion anchor into the borehole with the frontal end first, c) applying a torque to withdraw the expansion anchor a short distance out of the borehole, such that the expansion sleeve is radially expanded, and d) hardening and/or curing the mortar to obtain the installed expansion anchor, a) filling into the borehole a mortar, which comprises an organic polymer adhesive and inorganic filler, b) inserting the expansion anchor into the borehole with the frontal end first, c) applying a torque to withdraw the expansion anchor a short distance out of the borehole, such that the expansion sleeve is radially expanded, and d) hardening and/or curing the mortar to obtain the installed expansion anchor, wherein the mortar comprises ≤ 72.5 wt.% inorganic filler, based on the total weight of the mortar.
A ventilation and air-conditioning device comprising: a casing that includes a supply air duct for sucking in outdoor air and supplying the outdoor air to inside of a room as supply air and an exhaust air duct for sucking in indoor air and discharging the indoor air to outside of a room; a total heat exchanger that is positioned between the supply air duct and the exhaust air duct and is accommodated in the casing, and that performs total heat exchange between the outdoor air sucked into the supply air duct and the indoor air sucked into the exhaust air duct; a temperature sensor that measures a temperature of the outdoor air; a humidity sensor that measures a humidity of the outdoor air; an air-conditioning coil that heats the supply air; and a control unit that controls the air-conditioning coil such that an absolute humidity of the supply air becomes a predetermined value based on a measurement result of the temperature sensor and the humidity sensor; characterized in that the ventilation and air-conditioning device further comprises a unit that stores therein reference data in which a combination of the temperature and the humidity of the outdoor air is related to a capability value of the air-conditioning coil, wherein the control unit acquires a capability value of the air-conditioning coil corresponding to a measurement result of the temperature sensor and the humidity sensor based on the reference data, and drives the air-conditioning coil by a capability corresponding to an acquired capability value. a casing that includes a supply air duct for sucking in outdoor air and supplying the outdoor air to inside of a room as supply air and an exhaust air duct for sucking in indoor air and discharging the indoor air to outside of a room; a total heat exchanger that is positioned between the supply air duct and the exhaust air duct and is accommodated in the casing, and that performs total heat exchange between the outdoor air sucked into the supply air duct and the indoor air sucked into the exhaust air duct; a temperature sensor that measures a temperature of the outdoor air; a humidity sensor that measures a humidity of the outdoor air; an air-conditioning coil that heats the supply air; and a control unit that controls the air-conditioning coil such that an absolute humidity of the supply air becomes a predetermined value based on a measurement result of the temperature sensor and the humidity sensor; characterized in that the ventilation and air-conditioning device further comprises a unit that stores therein reference data in which a combination of the temperature and the humidity of the outdoor air is related to a capability value of the air-conditioning coil, wherein the control unit acquires a capability value of the air-conditioning coil corresponding to a measurement result of the temperature sensor and the humidity sensor based on the reference data, and drives the air-conditioning coil by a capability corresponding to an acquired capability value.
A method for determining a transmission path for a data packet through a network, the method comprising: tagging, at a first node, using a computing device processor, a data packet with a network or geographical location of a recipient second node; determining, using a computing device processor, whether the recipient second node is in a transmission area of the first node; in response to determining that the recipient second node is not in the transmission area of the first node, determining, using a MIMO antenna of the first node, directions from the first node to a first further node and to a second further node, within the transmission area of the first node; selecting, using a computing device processor, one of said first and second further nodes determined to be closest to the recipient second node as a third node based on the location of the recipient second node; and transmitting, using a computing device processor, the data packet to the third node. tagging, at a first node, using a computing device processor, a data packet with a network or geographical location of a recipient second node; determining, using a computing device processor, whether the recipient second node is in a transmission area of the first node; in response to determining that the recipient second node is not in the transmission area of the first node, determining, using a MIMO antenna of the first node, directions from the first node to a first further node and to a second further node, within the transmission area of the first node; selecting, using a computing device processor, one of said first and second further nodes determined to be closest to the recipient second node as a third node based on the location of the recipient second node; and determining, using a MIMO antenna of the first node, directions from the first node to a first further node and to a second further node, within the transmission area of the first node; selecting, using a computing device processor, one of said first and second further nodes determined to be closest to the recipient second node as a third node based on the location of the recipient second node; and transmitting, using a computing device processor, the data packet to the third node.
Method for operating a network subscriber, comprising: - receiving an input data stream which contains an input transmission frame (100, 411) in accordance with a field bus protocol, wherein the input data stream is received in temporally successive data units which have a defined processing width; - decoding fields of the input transmission frame (100, 411) using a plurality of field processing units arranged behind one another, wherein each field processing unit decodes a defined field of the input transmission frame (100, 411); - generating an output data stream which contains an output transmission frame (100, 421) in accordance with the field bus protocol, from the input data stream. - receiving an input data stream which contains an input transmission frame (100, 411) in accordance with a field bus protocol, wherein the input data stream is received in temporally successive data units which have a defined processing width; - decoding fields of the input transmission frame (100, 411) using a plurality of field processing units arranged behind one another, wherein each field processing unit decodes a defined field of the input transmission frame (100, 411); - generating an output data stream which contains an output transmission frame (100, 421) in accordance with the field bus protocol, from the input data stream.
An amide compound that is suitable to use as curing agent for epoxy-functional compounds, obtainable by reacting 5 - 55 mol% of one or more compounds containing one epoxy group with one or more amides formed by reacting 40 - 90 mol% of one or more amine-functional compounds having 2 or more -NH or -NH 2 groups with 5 - 50 mol% of one or more α-β unsaturated acids and/or one or more α-β unsaturated esters, where mol% is 100 multiplied by the number of moles of a given component divided by the total number of moles in the initial charge.
An electric submersible pump control system comprising: a primary variable frequency drive configured to receive power from a power source and output a variable voltage and variable amplitude AC voltage; a transformer comprising a low voltage side and a high voltage side of the transformer, wherein the primary VFD is coupled to the low voltage side, and wherein the transformer is configured to receive the AC voltage from the primary VFD and output a stepped up AC voltage; and characterised by a secondary VFD coupled to the high voltage side of the transformer, wherein the secondary VFD is configured to provide a supplemental voltage in addition to the stepped up AC voltage when the operational values of an electric motor exceed a threshold value. a primary variable frequency drive configured to receive power from a power source and output a variable voltage and variable amplitude AC voltage; a transformer comprising a low voltage side and a high voltage side of the transformer, wherein the primary VFD is coupled to the low voltage side, and wherein the transformer is configured to receive the AC voltage from the primary VFD and output a stepped up AC voltage; and characterised by a secondary VFD coupled to the high voltage side of the transformer, wherein the secondary VFD is configured to provide a supplemental voltage in addition to the stepped up AC voltage when the operational values of an electric motor exceed a threshold value.
A method for monitoring an electrospinning method with the step of determining an orientation of fibres or fibre sections (50.i) of a non-woven material, comprising the steps: (a) irradiating the non-woven material with polarised light, the polarisation of which changes depending on time, (b) determining a spatially-resolved, time-dependent polarisation (P 18 (t)) of light that has interacted with the non-woven material, thereby obtaining polarisation data, and (c) calculating the spatially-resolved orientation (O (x,y)) from the polarisation data. (a) irradiating the non-woven material with polarised light, the polarisation of which changes depending on time, (b) determining a spatially-resolved, time-dependent polarisation (P 18 (t)) of light that has interacted with the non-woven material, thereby obtaining polarisation data, and (c) calculating the spatially-resolved orientation (O (x,y)) from the polarisation data.
An apparatus for stacking hay bales comprising: a base frame securable to a motorized vehicle; a plurality of tines pivotally connected to the base frame extending to free distal ends, the tines defining locations therebetween spaced to correspond to a bale of hay; and a push bar extending parallel to the base frame and movable between a retracted position proximate to the base frame to an extended position along the plurality of tines to push the hay bales from therebetween, wherein each of the plurality of tines are supported by a support member extending from the tine to the base frame at a position above the pivot connection for that tine, wherein the support members are slidably received in bores in the base frame, and wherein the support members include a stop adapted to limit the downward rotation of the plurality of tines below horizontal and permit rotation above horizontal. a base frame securable to a motorized vehicle; a plurality of tines pivotally connected to the base frame extending to free distal ends, the tines defining locations therebetween spaced to correspond to a bale of hay; and a push bar extending parallel to the base frame and movable between a retracted position proximate to the base frame to an extended position along the plurality of tines to push the hay bales from therebetween, wherein each of the plurality of tines are supported by a support member extending from the tine to the base frame at a position above the pivot connection for that tine, wherein the support members are slidably received in bores in the base frame, and wherein the support members include a stop adapted to limit the downward rotation of the plurality of tines below horizontal and permit rotation above horizontal.
A tangible, non-transitory computer readable medium storing instructions that, when executed by a processor, cause the processor to: receive one or more inputs relating to a mechanical design and desired motion of an industrial machine; iteratively generate a motion profile within boundaries (76, 78) based on the one or more inputs, wherein the motion profile reduces energy consumption when applied to a motor drive to control a motor connected to the industrial machine, wherein at least one of the boundaries comprises a boundary defined around a desired trajectory, wherein the boundaries (76, 78) are represented by weighting matrices in a cost function, and wherein iteratively generating, via the processor, the motion profile within the boundaries (76, 78) based on the one or more inputs comprises recalculating the weighting matrices at each iteration when the motion profile is not within the boundaries (76, 78) represented by the weighting matrices; and wherein, once the motion profile is within the boundaries (76, 78), the weighting matrices continue to be iteratively recalculated until the weighting matrices converge to a solution that yields a motion profile within the boundaries (76, 78) that has a minimum energy cost; and apply the motion profile trajectory to the motor drive to control the motor connected to the industrial machine. receive one or more inputs relating to a mechanical design and desired motion of an industrial machine; iteratively generate a motion profile within boundaries (76, 78) based on the one or more inputs, wherein the motion profile reduces energy consumption when applied to a motor drive to control a motor connected to the industrial machine, wherein at least one of the boundaries comprises a boundary defined around a desired trajectory, wherein the boundaries (76, 78) are represented by weighting matrices in a cost function, and wherein iteratively generating, via the processor, the motion profile within the boundaries (76, 78) based on the one or more inputs comprises recalculating the weighting matrices at each iteration when the motion profile is not within the boundaries (76, 78) represented by the weighting matrices; and wherein, once the motion profile is within the boundaries (76, 78), the weighting matrices continue to be iteratively recalculated until the weighting matrices converge to a solution that yields a motion profile within the boundaries (76, 78) that has a minimum energy cost; and apply the motion profile trajectory to the motor drive to control the motor connected to the industrial machine.
A yaw backup system (18, 20, 22) comprising: an energy storage medium (38, 40) for storing auxiliary power; a yaw controller (42, 44) for coordinating delivery of power from the energy storage medium (38, 40) to a yaw motor (34, 35) for controlling a yaw angle of a wind turbine (12, 14, 16) during grid loss conditions by executing steps of: receiving wind direction signals over time from a sensor; characterized by: altering a tolerance level of a wind turbine (12, 14, 16) based on changes in the wind direction signals over time; and controlling delivery of power to the yaw motor (34, 35) from the auxiliary power of the energy storage medium (38, 40) based on the tolerance level to control the yaw angle for reducing a load on the wind turbine (12, 14, 16) induced by wind. an energy storage medium (38, 40) for storing auxiliary power; a yaw controller (42, 44) for coordinating delivery of power from the energy storage medium (38, 40) to a yaw motor (34, 35) for controlling a yaw angle of a wind turbine (12, 14, 16) during grid loss conditions by executing steps of: receiving wind direction signals over time from a sensor; characterized by: altering a tolerance level of a wind turbine (12, 14, 16) based on changes in the wind direction signals over time; and controlling delivery of power to the yaw motor (34, 35) from the auxiliary power of the energy storage medium (38, 40) based on the tolerance level to control the yaw angle for reducing a load on the wind turbine (12, 14, 16) induced by wind. altering a tolerance level of a wind turbine (12, 14, 16) based on changes in the wind direction signals over time; and controlling delivery of power to the yaw motor (34, 35) from the auxiliary power of the energy storage medium (38, 40) based on the tolerance level to control the yaw angle for reducing a load on the wind turbine (12, 14, 16) induced by wind.
A microfluidic device comprising: (a) cell culture compartments, in which (i) induced pluripotent stem cell (iPSC)-derived hepatocyte precursor cells; (ii) iPSC-derived intestinal precursor cells; (iii) iPSC-derived renal tubular precursor cells; and (iv) iPSC-derived neuronal precursor cells, are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and (b) further comprising a reservoir compartment, which serves to add nutrient solution to the system, wherein the microfluidic device is in form of a plate or a chip and contains a micropump. (a) cell culture compartments, in which (i) induced pluripotent stem cell (iPSC)-derived hepatocyte precursor cells; (ii) iPSC-derived intestinal precursor cells; (iii) iPSC-derived renal tubular precursor cells; and (iv) iPSC-derived neuronal precursor cells, are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and (i) induced pluripotent stem cell (iPSC)-derived hepatocyte precursor cells; (ii) iPSC-derived intestinal precursor cells; (iii) iPSC-derived renal tubular precursor cells; and (iv) iPSC-derived neuronal precursor cells, are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and (b) further comprising a reservoir compartment, which serves to add nutrient solution to the system,
A transgenic mouse comprising and expressing a polynucleotide encoding a human or humanised C5aR, wherein there has been targeted replacement of the C5aR coding region of the endogenous exon 3 of the C5aR mouse locus with a corresponding human or humanised C5aR coding sequence and wherein said humanised C5aR differs from the mouse C5aR encoded by said mouse locus in that extracellular domains are replaced with corresponding human C5aR extracellular domains.
A method for partially removing nitrogen oxides from a process gas stream (30; 44) comprising the steps: [a] separating the process gas stream (30; 44) into two or more process gas streams, wherein at least one of the two or more process gas streams is to be treated for nitrogen oxides removal and the volume-based percentage of this at least one of the two or more process gas streams is equal to the amount of nitrogen oxides to be removed; [b] adding or admixing ozone (32; 46) to at least one of the two or more process gas streams that is to be treated for nitrogen oxides removal, said ozone (32; 46) being added or admixed in an amount to oxidize the nitrogen oxides to forms beyond NO 2, in particular to N 2 O 5; [c] feeding the at least one of the two or more process gas streams that is treated for nitrogen oxides removal to a capture device (38; 58) being selected from the group consisting of wet scrubbing equipment. [a] separating the process gas stream (30; 44) into two or more process gas streams, wherein at least one of the two or more process gas streams is to be treated for nitrogen oxides removal and the volume-based percentage of this at least one of the two or more process gas streams is equal to the amount of nitrogen oxides to be removed; [b] adding or admixing ozone (32; 46) to at least one of the two or more process gas streams that is to be treated for nitrogen oxides removal, said ozone (32; 46) being added or admixed in an amount to oxidize the nitrogen oxides to forms beyond NO 2, in particular to N 2 O 5; [c] feeding the at least one of the two or more process gas streams that is treated for nitrogen oxides removal to a capture device (38; 58) being selected from the group consisting of wet scrubbing equipment.