mhurhangee/ep-ind-claims huggingface dataset:
1. A single phase aqueous low foaming antimicrobial concentrate composition for cleaning food surfaces, whereby the food surfaces do not need to be rinsed off from the composition prior to consuming the surface, the concentrate composition comprising: (a) at least about 25 wt% water; (b) an antimicrobial agent comprising an anionic surfactant; (c) a silicone defoaming agent; (d) an acidulant; (e) a stabilizing agent comprising a block copolymer of ethylene oxide and propylene oxide; and (f) a thickening agent, wherein the composition has a viscosity of between about 50 mPa*s (centipoise) and about 3,500 mPa*s (centipoise) when tested with a spindle 3 at 50 rpm on a Brookfield RVDVI+ viscometer, and the thickening agent is present in an amount effective such that the composition is phase stable under acidic conditions, and wherein the composition has a pH of less than 3.2. (a) at least about 25 wt% water; (b) an antimicrobial agent comprising an anionic surfactant; (c) a silicone defoaming agent; (d) an acidulant; (e) a stabilizing agent comprising a block copolymer of ethylene oxide and propylene oxide; and (f) a thickening agent,
A computing device for determining and conveying a bandwidth coverage of an optical communication modality within a space, wherein the space comprises at least one optical transmitter arranged for communicating over said optical communication modality; wherein the computing device comprises a controller configured to: - obtain configuration data characterizing a configuration of said space; - obtain lighting data characterizing the at least one optical transmitter; - compute the bandwidth coverage of the optical communication modality within the space based on the configuration data and the lighting data; wherein the computing device comprises an output interface configured to: - convey a signal indicative of the bandwidth coverage of the optical communication modality within the space. wherein the computing device comprises a controller configured to: - obtain configuration data characterizing a configuration of said space; - obtain lighting data characterizing the at least one optical transmitter; - compute the bandwidth coverage of the optical communication modality within the space based on the configuration data and the lighting data; - obtain configuration data characterizing a configuration of said space; - obtain lighting data characterizing the at least one optical transmitter; - compute the bandwidth coverage of the optical communication modality within the space based on the configuration data and the lighting data; wherein the computing device comprises an output interface configured to: - convey a signal indicative of the bandwidth coverage of the optical communication modality within the space. - convey a signal indicative of the bandwidth coverage of the optical communication modality within the space.
Three component composition consisting of a) a polyol component comprising - at least one polyol P1a with an average molecular weight of 800 to 30'000 g/mol, preferably 850 to 20'000 g/mol, more preferably 900 to 10'000 g/mol, and - at least one polyol P1b with an average molecular weight of 48 to 800 g/mol, preferably 60 to 600 g/mol, more preferably 60 to 400 g/mol, most preferably 60 to 300 g/mol, and - water, and b) a polyisocyanate component comprising - a methylene diphenyl diisocyanate product with an average NCO functionality of at least 2.5, or - a methylene diphenyl diisocyanate product with an average NCO functionality of at least 2 and at least one polyol P2 with an amount of between 1 and 30%, preferably between 5 and 25%, more preferably between 10 and 20% by weight, based on the weight of said polyisocyanate component, wherein said MDI product and said polyol P2 have reacted at least partially, and c) a powder component comprising at least one hydraulic binder, preferably cement and/or calcined paper sludge, wherein component comprises said polyol P1a with an amount of 20 to 75% by weight, based on the total weight of component, and said polyol P1b with an amount of 2 to 15% by weight, based on the total weight of component. a) a polyol component comprising - at least one polyol P1a with an average molecular weight of 800 to 30'000 g/mol, preferably 850 to 20'000 g/mol, more preferably 900 to 10'000 g/mol, and - at least one polyol P1b with an average molecular weight of 48 to 800 g/mol, preferably 60 to 600 g/mol, more preferably 60 to 400 g/mol, most preferably 60 to 300 g/mol, and - water, and - at least one polyol P1a with an average molecular weight of 800 to 30'000 g/mol, preferably 850 to 20'000 g/mol, more preferably 900 to 10'000 g/mol, and - at least one polyol P1b with an average molecular weight of 48 to 800 g/mol, preferably 60 to 600 g/mol, more preferably 60 to 400 g/mol, most preferably 60 to 300 g/mol, and - water, and b) a polyisocyanate component comprising - a methylene diphenyl diisocyanate product with an average NCO functionality of at least 2.5, or - a methylene diphenyl diisocyanate product with an average NCO functionality of at least 2 and at least one polyol P2 with an amount of between 1 and 30%, preferably between 5 and 25%, more preferably between 10 and 20% by weight, based on the weight of said polyisocyanate component, wherein said MDI product and said polyol P2 have reacted at least partially, and - a methylene diphenyl diisocyanate product with an average NCO functionality of at least 2.5, or - a methylene diphenyl diisocyanate product with an average NCO functionality of at least 2 and at least one polyol P2 with an amount of between 1 and 30%, preferably between 5 and 25%, more preferably between 10 and 20% by weight, based on the weight of said polyisocyanate component, wherein said MDI product and said polyol P2 have reacted at least partially, and c) a powder component comprising at least one hydraulic binder, preferably cement and/or calcined paper sludge,
A filter apparatus, comprising: two or more filter cartridges having a first end with an inlet and screen and a second end with an outlet and screen, and walls to contain a filter media; a housing comprising an upper and a lower plate for holding the two or more filter cartridges in about the same orientation, the upper plate and lower plate comprising openings for rotatably engaging the two or more filter cartridges, and one or more support elements connecting the upper plate and the lower plate; and an IV pole clamp connected to the housing.
A tripolar VSC high-voltage direct current, VSC-HVDC, control method for controlling a tripolar VSC-HVDC system adopting three conductors to transmit DC power, the system comprising: a rectifier and an inverter formed by a three phase six-bridge arms modular multilevel converter, MMC, respectively, midpoints of a first phase unit, a second phase unit and a third phase unit of each of the respective rectifier and inverter are connected with a secondary side of a converter transformer, and two converter valves of fully controlled semiconductor devices are arranged between poles 1 and 2 on the DC side of the rectifier and inverter respectively, positive poles of the rectifier and inverter are connected with a pole 1 DC transmission line by a smoothing reactor wherein the pole 1 DC transmission line is a first of the three conductors configured to transmit DC power, negative poles of the rectifier and inverter are connected with a pole 2 DC transmission line by a smoothing reactor wherein the pole 2 DC transmission line is a second of the three conductors configured to transmit DC power, and connecting points of the upper and lower converter valves of the rectifier and inverter are connected with a pole 3 DC transmission line by a direct connection via a smoothing reactor wherein the pole 3 DC transmission line is a third of the three conductors configured to transmit DC power, the method comprising: controlling current directions of the poles 1 and 2 to be constant without change, periodically modulating current values of the poles 1 and 2 between a maximum and a minimum, wherein a current value of the pole 3 is a difference value between the current values of pole 1 and pole 2, and the value of the direct current of the pole 3 is the minimum of the current values of the poles 1 and 2; periodically changing the current direction of the pole 3, wherein DC voltage polarity of the poles 1 and 2 are constant without change, controlling triggering of the upper and lower converter valves of the rectifier and the inverter to cause the pole 3 DC transmission line to operate in parallel with the pole 1 DC transmission line or the pole 2 DC transmission line periodically, thereby changing the DC voltage polarity of the pole 3 periodically and ensuring unchanged DC power direction of the pole 3, characterized in that a ratio of the maximum to the minimum of the current values is 2.
A front-end amplifier comprising: a charge amplifier configured to be coupled to a microelectromechanical system, MEMS, device and to provide a voltage signal representative of sense information of a proof mass of the MEMS device; a feedback circuit configured to receive the voltage signal and to provide feedback to an input of the charge amplifier; wherein the charge amplifier includes a transfer function having a first pole at a first frequency, a second pole at a second frequency, and one zero at a third frequency, wherein the first frequency and the second frequency are at or below a resonance frequency of the proof mass, characterised in that, the feedback circuit includes: a current attenuator coupled to the input of the charge amplifier; and a transconductor coupled to the current attenuator and an output of the charge amplifier, wherein the transconductor is configured to provide a current signal representative of the voltage signal. a charge amplifier configured to be coupled to a microelectromechanical system, MEMS, device and to provide a voltage signal representative of sense information of a proof mass of the MEMS device; a feedback circuit configured to receive the voltage signal and to provide feedback to an input of the charge amplifier; wherein the charge amplifier includes a transfer function having a first pole at a first frequency, a second pole at a second frequency, and one zero at a third frequency, wherein the first frequency and the second frequency are at or below a resonance frequency of the proof mass, characterised in that, the feedback circuit includes: a current attenuator coupled to the input of the charge amplifier; and a transconductor coupled to the current attenuator and an output of the charge amplifier, wherein the transconductor is configured to provide a current signal representative of the voltage signal. a current attenuator coupled to the input of the charge amplifier; and a transconductor coupled to the current attenuator and an output of the charge amplifier, wherein the transconductor is configured to provide a current signal representative of the voltage signal.
A method for an access point, AP, to communicate with a plurality of stations, STAs, using orthogonal frequency divisional multiple access, OFDMA, or multi-user multiple input multiple output, MU-MIMO in a wireless local area network, WLAN, the method comprising: transmitting resource allocation information for the plurality of STAs; and transmitting data through a frequency band based on the resource allocation information, wherein the frequency band includes a plurality of resource units, the plurality of resource units including a normal resource unit allocated to one STA, and a multi-user resource unit which is a single resource unit allocated to more than one STA among the plurality of STAs, wherein the resource allocation information includes: a common resource allocation information having a same bit sequence value for the plurality of STAs, and informing of a number of the plurality of resource units and various size of each of the plurality of resource units, multi-user indication for a number of STAs, among the plurality of STAs, to which the multi-user resource unit is allocated, and multiple ID fields for corresponding identification information of STA to which the normal resource unit or the multi-user resource unit is allocated. transmitting resource allocation information for the plurality of STAs; and transmitting data through a frequency band based on the resource allocation information, wherein the frequency band includes a plurality of resource units, the plurality of resource units including a normal resource unit allocated to one STA, and a multi-user resource unit which is a single resource unit allocated to more than one STA among the plurality of STAs, wherein the resource allocation information includes: a common resource allocation information having a same bit sequence value for the plurality of STAs, and informing of a number of the plurality of resource units and various size of each of the plurality of resource units, multi-user indication for a number of STAs, among the plurality of STAs, to which the multi-user resource unit is allocated, and multiple ID fields for corresponding identification information of STA to which the normal resource unit or the multi-user resource unit is allocated. a common resource allocation information having a same bit sequence value for the plurality of STAs, and informing of a number of the plurality of resource units and various size of each of the plurality of resource units, multi-user indication for a number of STAs, among the plurality of STAs, to which the multi-user resource unit is allocated, and multiple ID fields for corresponding identification information of STA to which the normal resource unit or the multi-user resource unit is allocated.
Device for holding endotracheal tubes, intended to secure at least one endotracheal tube with respect to a patient's mouth and comprising: a bite tube that defines a passage zone for at least one endotracheal tube, a front plate and an adjustable retainer joined to the bite tube and which form means for limiting displacement of the bite tube in the axial direction towards the interior and exterior of the mouth of the patient respectively; and means for immobilising at least one endotracheal tube with respect to the bite tube in the axial direction; wherein: - the device comprises a lateral opening along the entire length of the bite tube, the front plate and the adjustable retainer for lateral or transversal introduction of at least one endotracheal tube into the passage zone defined by the bite tube, - the front plate and the adjustable retainer are arranged externally with respect to the bite tube, characterised in that - the adjustable retainer is constituted by an inflatable balloon. that defines a passage zone for at least one endotracheal tube, a front plate and an adjustable retainer joined to the bite tube and which form means for limiting displacement of the bite tube in the axial direction towards the interior and exterior of the mouth of the patient respectively; and means for immobilising at least one endotracheal tube with respect to the bite tube in the axial direction; wherein: - the device comprises a lateral opening along the entire length of the bite tube, the front plate and the adjustable retainer for lateral or transversal introduction of at least one endotracheal tube into the passage zone defined by the bite tube, - the front plate and the adjustable retainer are arranged externally with respect to the bite tube, characterised in that - the adjustable retainer is constituted by an inflatable balloon. - the device comprises a lateral opening along the entire length of the bite tube, the front plate and the adjustable retainer for lateral or transversal introduction of at least one endotracheal tube into the passage zone defined by the bite tube, - the front plate and the adjustable retainer are arranged externally with respect to the bite tube, characterised in that - the adjustable retainer is constituted by an inflatable balloon.
A lithium secondary battery comprising: a positive electrode; a negative electrode; and an electrolyte disposed between the positive electrode and the negative electrode; the electrolyte comprising: a compound represented by Formula 1; a lithium salt; and an organic solvent, wherein an amount of the compound represented by Formula 1 is less than 3.0 weight percent, based on a total weight of the electrolyte: wherein, in Formula 1, R 1 to R 15 are each independently selected from hydrogen, fluorine, a substituted or unsubstituted C1-C10 alkyl group, and a substituted or unsubstituted C6-C10 aryl group; wherein the electrolyte further comprises at least one selected from vinylene carbonate, vinyl ethylene carbonate, maleic anhydride, and succinic anhydride, and the amount of the at least one selected from vinylene carbonate, vinyl ethylene carbonate, maleic anhydride, and succinic anhydride is 0.1 weight percent to 2 weight percent, based on the total weight of the electrolyte; and wherein the positive electrode comprises a nickel-rich lithium-nickel composite oxide containing 70 mole percent to 95 mole percent of nickel, based on a total molar amount of transition metals in the nickel-rich lithium-nickel composite oxide. a positive electrode; a negative electrode; and an electrolyte disposed between the positive electrode and the negative electrode; a compound represented by Formula 1; a lithium salt; and an organic solvent, wherein an amount of the compound represented by Formula 1 is less than 3.0 weight percent, based on a total weight of the electrolyte: R 1 to R 15 are each independently selected from hydrogen, fluorine, a substituted or unsubstituted C1-C10 alkyl group, and a substituted or unsubstituted C6-C10 aryl group; wherein the electrolyte further comprises at least one selected from vinylene carbonate, vinyl ethylene carbonate, maleic anhydride, and succinic anhydride, and the amount of the at least one selected from vinylene carbonate, vinyl ethylene carbonate, maleic anhydride, and succinic anhydride is 0.1 weight percent to 2 weight percent, based on the total weight of the electrolyte; and wherein the positive electrode comprises a nickel-rich lithium-nickel composite oxide containing 70 mole percent to 95 mole percent of nickel, based on a total molar amount of transition metals in the nickel-rich lithium-nickel composite oxide.
Transport and load securing device for containers having container stands on a loading area of a vehicle, in particular a motor vehicle, having pairwisely opposing vehicle traverses, which are fixedly connected to the vehicle, pairwisely opposing container traverses, which extend between the vehicle traverses, wherein the container traverses have at the longitudinal sides thereof respectively at least one engagement shell for respectively one container stand, so as to hold a container stand in sections with positive locking by the engagement shell, and container stands at opposing sides of the container are held by engagement shells of opposing container traverses, characterized in that the container traverses are arranged perpendicular to the vehicle traverses.
A method for operating a lathe which has a steady rest with workpiece supports (L1, L2, L3), which can be moved by a controller, wherein the controller - for the setting up of the steady rest, transforms the values of the constructive central axis of the steady rest by means of the coordinate deviations (AX, AY) between the values of the constructive central axis and the values of the central axis of the main spindle of the lathe to the values of a compensated central axis of the steady rest, and - for the clamping of a workpiece (W; V) in the steady rest, adjusts the workpiece supports (L1, L2, L3) such that the central axis (WM; VM) of the workpiece (W; V) and the compensated central axis of the steady rest are aligned. - for the setting up of the steady rest, transforms the values of the constructive central axis of the steady rest by means of the coordinate deviations (AX, AY) between the values of the constructive central axis and the values of the central axis of the main spindle of the lathe to the values of a compensated central axis of the steady rest, and - for the clamping of a workpiece (W; V) in the steady rest, adjusts the workpiece supports (L1, L2, L3) such that the central axis (WM; VM) of the workpiece (W; V) and the compensated central axis of the steady rest are aligned.
A hearing assistance device (210, 310), comprising: a microphone; a speaker (207, 302); a wireless receiver (206, 306) configured to receive a signal from a cellular telephone representative of an environmental parameter sensed by the cellular telephone; and a processor (205, 305) configured to: process acoustic signals received by the microphone for output to the speaker (207, 302); identify an acoustic environment about the cellular telephone using the received signal; and adjust an operational mode of the hearing assistance device based on the identified acoustic environment, characterized in that: the received signal is representative of movement of the cellular telephone and the processor is configured to set microphone directionality to an omni-directional microphone mode, to adjust the operational mode, if the identified acoustic environment is a car environment. a microphone; a speaker (207, 302); a wireless receiver (206, 306) configured to receive a signal from a cellular telephone representative of an environmental parameter sensed by the cellular telephone; and a processor (205, 305) configured to: process acoustic signals received by the microphone for output to the speaker (207, 302); identify an acoustic environment about the cellular telephone using the received signal; and adjust an operational mode of the hearing assistance device based on the identified acoustic environment, process acoustic signals received by the microphone for output to the speaker (207, 302); identify an acoustic environment about the cellular telephone using the received signal; and adjust an operational mode of the hearing assistance device based on the identified acoustic environment, characterized in that: the received signal is representative of movement of the cellular telephone and the processor is configured to set microphone directionality to an omni-directional microphone mode, to adjust the operational mode, if the identified acoustic environment is a car environment. the received signal is representative of movement of the cellular telephone and the processor is configured to set microphone directionality to an omni-directional microphone mode, to adjust the operational mode, if the identified acoustic environment is a car environment.