mhurhangee/patent-ind-claim-en huggingface dataset:
A container with a lid, wherein the container comprises an upper container edge and a completely circumferential lateral wall and an upper container opening closed by the lid , wherein in the region of the upper container edge , a latching edge is provided for connection in a latching manner to a corresponding latching edge provided on the lid , wherein the latching edges of the container and of the lid each extend at least around a part of the circumference of the container and lid respectively, wherein, furthermore, the lateral wall of the container has a circumferential skirt which has a subregion that extends radially outwards from the lateral wall , and wherein the lid has a lower lid edge on the outside of the container , wherein the lid has at least one lid extension extending outside the lateral wall of the container , which lid extension extends below the lower lid edge and passes at least partially through the container skirt , and wherein the lid extension and the container have corresponding fastening means which can be detached independently of the latching means formed by the latching edge of the container and the lid , characterised in that the lid extension is covered on its outside at least in part by a tamper-evident seal arranged on the container on the container skirt , and in that the lid extension is accessible for actuation as a result of the removal or displacement of the tamper-evident seal .
Process for the production of poly(oxyalkylene) polyols, wherein initially in a first step A) i) at least one phosphorus-containing compound having at least one hydroxyl group or ii) a mixture of at least one phosphorus-containing compound comprising at least one hydroxyl group and with at least one H-functional starter compound, wherein the proportion of the H-functional starter compounds in the mixture is not more than 50% by weight, are reacted with B) an alkylene oxide component, comprising: i) ≥ 50% to ≤ 100% by weight of ethylene oxide and ii) ≥ 0% to ≤ 50% by weight of alkylene oxides other than ethylene oxide and the product obtained from the first step is then reacted under DMC catalysis with C) an alkylene oxide component, comprising: i) ≥ 0% to ≤ 25% by weight of ethylene oxide and ii) ≥ 75% to ≤ 100% by weight of alkylene oxides other than ethylene oxide and D) optionally carbon dioxide, wherein in the first process step the molar ratio of the component (B) to the hydroxyl groups of the component (A) is 1:1 to 8:1. A) i) at least one phosphorus-containing compound having at least one hydroxyl group or ii) a mixture of at least one phosphorus-containing compound comprising at least one hydroxyl group and with at least one H-functional starter compound, wherein the proportion of the H-functional starter compounds in the mixture is not more than 50% by weight, are reacted with i) at least one phosphorus-containing compound having at least one hydroxyl group or ii) a mixture of at least one phosphorus-containing compound comprising at least one hydroxyl group and with at least one H-functional starter compound, wherein the proportion of the H-functional starter compounds in the mixture is not more than 50% by weight, are reacted with B) an alkylene oxide component, comprising: i) ≥ 50% to ≤ 100% by weight of ethylene oxide and ii) ≥ 0% to ≤ 50% by weight of alkylene oxides other than ethylene oxide and the product obtained from the first step is then reacted under DMC catalysis with i) ≥ 50% to ≤ 100% by weight of ethylene oxide and ii) ≥ 0% to ≤ 50% by weight of alkylene oxides other than ethylene oxide C) an alkylene oxide component, comprising: i) ≥ 0% to ≤ 25% by weight of ethylene oxide and ii) ≥ 75% to ≤ 100% by weight of alkylene oxides other than ethylene oxide and i) ≥ 0% to ≤ 25% by weight of ethylene oxide and ii) ≥ 75% to ≤ 100% by weight of alkylene oxides other than ethylene oxide and D) optionally carbon dioxide,
A method of performing a sizing analysis, the method comprising: (a) providing a sizing ladder, wherein the sizing ladder contains components of a known size and relates component size to migration time, wherein separated components are identified as peaks; (b) providing a concentration for each peak in the sizing ladder; (c) separating a sample into a plurality of components in a fractionation device by electrophoresis; (d) computing a sample concentration up to a migration time (ti) of each ladder peak (i); characterized in that the method comprises: (e) normalizing the sample concentration up to the migration time (ti) to a sizing ladder concentration up to the migration time (ti) using the formula C N i = C S t i / C L i where C S (t i ) is the cumulative sample concentration up to the time t i C L (i) is the sum of the ladder peak concentrations up to the i th ladder peak; (f) correcting the sizing ladder peak (i) migration time using the formula t ∗ i = f t i , C N , p 1 , p 2 p 3 , ... p n where f is a function of ti, C N , and any number of specified parameters (p n ); (g) repeating steps (c) through (f) for each component of the plurality of components; and (h) performing a sizing analysis of the plurality of components disposed in the fractionation device using the corrected ladder peak migration times. (a) providing a sizing ladder, wherein the sizing ladder contains components of a known size and relates component size to migration time, wherein separated components are identified as peaks; (b) providing a concentration for each peak in the sizing ladder; (c) separating a sample into a plurality of components in a fractionation device by electrophoresis; (d) computing a sample concentration up to a migration time (ti) of each ladder peak (i); characterized in that the method comprises: (e) normalizing the sample concentration up to the migration time (ti) to a sizing ladder concentration up to the migration time (ti) using the formula C N i = C S t i / C L i where C S (t i ) is the cumulative sample concentration up to the time t i C L (i) is the sum of the ladder peak concentrations up to the i th ladder peak; where C S (t i ) is the cumulative sample concentration up to the time t i C L (i) is the sum of the ladder peak concentrations up to the i th ladder peak; (f) correcting the sizing ladder peak (i) migration time using the formula t ∗ i = f t i , C N , p 1 , p 2 p 3 , ... p n where f is a function of ti, C N , and any number of specified parameters (p n ); (g) repeating steps (c) through (f) for each component of the plurality of components; and (h) performing a sizing analysis of the plurality of components disposed in the fractionation device using the corrected ladder peak migration times.
A station of a mesh network wherein the station is configured to transmit and receive data packets comprising a header comprising a mesh mode channel switch announcement element and a mesh channel switch parameter element, wherein the station comprises a controller (210; 502) configured to initiate communication with at least one second station on a first communication channel; a transceiver configured to transmit and receive data packets to and from the at least one second station on the first communication channel; a counter configured to monitor an amount of lost data packets; wherein if the amount of lost data packets exceeds a drop threshold, the controller (210; 502) is further configured to determine if at least one communication criterion is fulfilled, and if the controller (210; 502) determines that the at least one communication criterion is fulfilled, the controller (210; 502) is configured to move the communication from the first communication channel to a second communication channel during the remainder of the communication.
A method of producing polyaniline-dinonylnapthalene sulfonic acid (PANI-DNNSA), comprising introducing an emulsion of a monomer and an acid into a flow reactor , the flow reactor comprising a length of tubing of inner diameter between 1 to 4000 micrometers; polymerizing the monomer; forming a salt of the polymerized monomer with the acid within the length of tubing, the majority of the salt of the polymerized monomer depositing on the walls of the tubing; maintaining the salt of the polymerized monomer on the walls of the tubing; and eluting the salt of the polymerized monomer from the walls of the tubing with organic solvent. polymerizing the monomer; forming a salt of the polymerized monomer with the acid within the length of tubing, the majority of the salt of the polymerized monomer depositing on the walls of the tubing; maintaining the salt of the polymerized monomer on the walls of the tubing; and eluting the salt of the polymerized monomer from the walls of the tubing with organic solvent.
A device for anomaly detection comprising: an acquisition unit configured to acquire communication feature values of communication devices ; a calculation unit configured to calculate, for each transmission source MAC address, corresponding to a communication device , included in the communication feature values acquired by the acquisition unit, a total value of the number of packets transmitted to and received from a layer-2 switch or a total value of the number of bytes, for each layer-2 switch connected to a corresponding communication device ; and a determination unit configured to determine, for each transmission source MAC address, that a communication device corresponding to the transmission source MAC address is directly connected to a layer-2 switch whose total value of the number of transmitted and received packets or total value of the number of bytes calculated by the calculation unit is the largest, wherein the device is configured to identify the layer-2 switch as an observation point for the communication device from which communication data of the communication device can be fully monitored by determining by the determination unit that the communication device is directly connected to the layer-2 switch . an acquisition unit configured to acquire communication feature values of communication devices ; a calculation unit configured to calculate, for each transmission source MAC address, corresponding to a communication device , included in the communication feature values acquired by the acquisition unit, a total value of the number of packets transmitted to and received from a layer-2 switch or a total value of the number of bytes, for each layer-2 switch connected to a corresponding communication device ; and a determination unit configured to determine, for each transmission source MAC address, that a communication device corresponding to the transmission source MAC address is directly connected to a layer-2 switch whose total value of the number of transmitted and received packets or total value of the number of bytes calculated by the calculation unit is the largest, wherein the device is configured to identify the layer-2 switch as an observation point for the communication device from which communication data of the communication device can be fully monitored by determining by the determination unit that the communication device is directly connected to the layer-2 switch .
A honeycomb filter comprising: porous partition portions forming a plurality of cells , each of the cells being open at one end and sealed at the other end, serving as a flow path of a fluid, and having a polygonal cross section orthogonal to the flow path; and a trapping layer for trapping and removing solid components contained in the fluid, the trapping layer including a side trapping layer disposed on the partition portion that forms a side of a polygon of each of the cells and a corner trapping layer disposed on the partition portion that forms a corner of the polygon of each of the cells , wherein the corner trapping layer has a high porosity region having a porosity higher than the porosity of the side trapping layer , the high porosity region being disposed on the partition portion side of the corner trapping layer ; wherein the thickness of the high porosity region is more than 0% and 40% or less of the thickness of a region of the corner trapping layer , the region being other than the high porosity region . porous partition portions forming a plurality of cells , each of the cells being open at one end and sealed at the other end, serving as a flow path of a fluid, and having a polygonal cross section orthogonal to the flow path; and a trapping layer for trapping and removing solid components contained in the fluid, the trapping layer including a side trapping layer disposed on the partition portion that forms a side of a polygon of each of the cells and a corner trapping layer disposed on the partition portion that forms a corner of the polygon of each of the cells , wherein the corner trapping layer has a high porosity region having a porosity higher than the porosity of the side trapping layer , the high porosity region being disposed on the partition portion side of the corner trapping layer ; wherein the thickness of the high porosity region is more than 0% and 40% or less of the thickness of a region of the corner trapping layer , the region being other than the high porosity region .
Frequency converter, having a storage unit for electrical energy, having at least one storage element for storing electrical energy, wherein the storage unit is designed as an intermediate circuit capacitor, wherein a means for detecting physical variables in the immediate vicinity of the storage element is assigned to the storage element , wherein the means for detecting the physical variable comprises a pressure sensor and a temperature sensor , wherein the means is designed to detect the physical variable for detecting a change over time of the physical variable, wherein the means for detecting the physical variable is designed to provide a signal when a predefinable change over time of the physical variable is exceeded, wherein the means for detecting the physical variable and the storage element are arranged in an enclosed or essentially enclosed housing , wherein the signal is designed in accordance with an electrical resistance (R) of the means for detecting the physical variable, wherein the resistance represents the output of the means for detecting the physical variable, wherein the evaluation facility and/or the means for detecting a physical variable are connected to a higher-level security system , wherein the higher-level security system is designed as a fire protection system, wherein the higher-level security system is designed to decouple and/or to divert the electrical energy from the respective storage element when the predefinable change over time of the physical variable is exceeded.
A processor comprising: a plurality of registers (120; 740); an execution unit (755-1, 755-2, ..., 755-N) to execute a call instruction of a calling process, the call instruction to initiate execution of a code sequence (305; 326) at a higher privilege level than the calling process, the code sequence to be stored in a protected memory page not executable at the user privilege level; and a register of the plurality of registers (120; 740) to store a target address accessible at the higher privilege level; wherein the execution unit (755-1, 755-2, ..., 755-N) is to perform an authentication operation based, at least in part, on examination of a stack, wherein responsive to a successful authentication, the execution unit (755-1, 755-2, ..., 755-N) is to execute the code sequence and modify the stack at the higher privilege level, and wherein responsive to a failed authentication, the execution unit (755-1, 755-2, ..., 755-N) is to prevent execution of the code sequence at the higher privilege level and trigger a fault or an interrupt or alert a supervisory program. a plurality of registers (120; 740); an execution unit (755-1, 755-2, ..., 755-N) to execute a call instruction of a calling process, the call instruction to initiate execution of a code sequence (305; 326) at a higher privilege level than the calling process, the code sequence to be stored in a protected memory page not executable at the user privilege level; and a register of the plurality of registers (120; 740) to store a target address accessible at the higher privilege level; wherein the execution unit (755-1, 755-2, ..., 755-N) is to perform an authentication operation based, at least in part, on examination of a stack, wherein responsive to a successful authentication, the execution unit (755-1, 755-2, ..., 755-N) is to execute the code sequence and modify the stack at the higher privilege level, and wherein responsive to a failed authentication, the execution unit (755-1, 755-2, ..., 755-N) is to prevent execution of the code sequence at the higher privilege level and trigger a fault or an interrupt or alert a supervisory program.
An electronic system for bioimpedance signal acquisition, comprising: a current signal injection module configured for generating a current signal (S1) that is to be applied to a subject; a bioimpedance signal measurement module configured for measuring a bioimpedance signal (S2) based on a voltage generated by the current signal (S1) applied to the subject; a data quality detection module configured for detecting an AC level and a DC level of the measured bioimpedance signal (S2) and detecting whether the AC level and the DC level of the measured bioimpedance signal (S2) are within or outside an AC reference value range and a DC reference value range, respectively; and a signal adaptation module configured for modifying at least one parameter of the current signal injection module and/or the bioimpedance signal measurement module based on said detection whether the AC level and the DC level of the measured bioimpedance signal (S2) are within or outside an AC reference value range and a DC reference value range, respectively wherein the signal adaptation module is configured for modifying a frequency of the generated current signal (S1), a gain of the measured bioimpedance signal and/or electrodes to be included in an electrode pair for measuring the bioimpedance signal. a current signal injection module configured for generating a current signal (S1) that is to be applied to a subject; a bioimpedance signal measurement module configured for measuring a bioimpedance signal (S2) based on a voltage generated by the current signal (S1) applied to the subject; a data quality detection module configured for detecting an AC level and a DC level of the measured bioimpedance signal (S2) and detecting whether the AC level and the DC level of the measured bioimpedance signal (S2) are within or outside an AC reference value range and a DC reference value range, respectively; and a signal adaptation module configured for modifying at least one parameter of the current signal injection module and/or the bioimpedance signal measurement module based on said detection whether the AC level and the DC level of the measured bioimpedance signal (S2) are within or outside an AC reference value range and a DC reference value range, respectively wherein the signal adaptation module is configured for modifying a frequency of the generated current signal (S1), a gain of the measured bioimpedance signal and/or electrodes to be included in an electrode pair for measuring the bioimpedance signal.
A method of transmitting an On-Off Keying, OOK, signal which comprises an ON waveform and an OFF waveform forming a pattern representing transmitted information, performed by a transmitter, the method comprising: obtaining a basic baseband waveform; scrambling the basic baseband waveform by applying a first binary randomised sequence where one of the binary values of the first binary randomised sequence causes transformation of the basic baseband waveform to a complex conjugate of the basic baseband waveform; modulating the information to be transmitted by applying the scrambled basic baseband waveform for the ON waveform and applying no waveform for the OFF waveform; and transmitting the modulated information. obtaining a basic baseband waveform; scrambling the basic baseband waveform by applying a first binary randomised sequence where one of the binary values of the first binary randomised sequence causes transformation of the basic baseband waveform to a complex conjugate of the basic baseband waveform; modulating the information to be transmitted by applying the scrambled basic baseband waveform for the ON waveform and applying no waveform for the OFF waveform; and transmitting the modulated information.
A home appliance having a light emitting module, comprising a housing assembly , wherein the light emitting module is located on the housing assembly , wherein the light emitting module comprises a base , a light source and a light shield , wherein the light shield comprises a light-shielding area , wherein the light-shielding area externally shields the entire light source to prevent the light ray emitted by the light source from directly emitting outside the light shield , the light source is located between the base and the light shield , characterized in that the base has a diffuse reflection area that receives illumination from the light source , an outer part opposite to the diffuse reflection area has a light transmission area , and a light ray emitted by the light source passes through the light transmission area after being reflected by the diffuse reflection area , wherein the light transmission area is formed on the light shield , wherein the light shield has a light-transmitting hollow portion or a transparent portion, wherein the light emitting module is externally covered with a protection cover , wherein at least a portion of the protection cover that covers the light transmission area is transparent or translucent, thereby allowing light to pass through.
A trampoline support frame comprising a plurality of transversal branch pipes each being provided with a curved portion and connected to each other so as to form an annular frame provided for a bouncing component to be mounted at inner side thereof, and a plurality of longitudinal branch pipes each provided to one of said transversal branch pipes , wherein each of said longitudinal branch pipes is respectively provided with a fitting portion , two reinforcing portions integrally extended from said fitting portion to corresponding two side surfaces of said transversal branch pipe and fixed to said transversal branch pipe by welding, an accommodating space formed between said two reinforcing portions and provided for one of said transversal branch pipes to be located therein, and two bearing surfaces each of which is formed between two ends of said two reinforcing portions and toward said accommodating space so as to support one of said transversal branch pipes ; characterized in that each of said transversal branch pipes is respectively provided with a first connecting portion provided at one end of said curved portion and being provided with a first opening , and a second connecting portion provided at another end of said curved portion and being provided with a second opening , wherein, when a first transversal branch pipe of said plurality of transversal branch pipes and a second transversal branch pipe of said plurality of transversal branch pipes adjacent to said first transversal branch pipe are connected to each other so as to form the annular frame, the second connecting portion of the first transversal branch pipe covers the first connecting portion of the second transversal branch pipe , wherein each of said first connecting portions is respectively provided with two first stepped surfaces located at two opposite outer sides of said first opening while extending in parallel with each other and in parallel with the two reinforcing portions , and each of said second connecting portions is respectively provided with two second stepped surfaces located at two opposite outer sides of said second opening while extending in parallel with said two first stepped surfaces and in parallel with the two reinforcing portions , and wherein the two reinforcing portions of each of said longitudinal branch pipes are attached to said two second stepped surfaces by welding.