mhurhangee/patent-ind-claim-en huggingface dataset:
A method for purification of contaminated oil, said method comprising the steps of: - providing contaminated oil and a liquid separation aid to a mixing tank , wherein said liquid separation aid is substantially insoluble in the oil because of its polar properties, forming a two phase mixture upon mixing thus forming colloids consisting of small droplets of the liquid separation aid, which through chemical interactions absorb contaminations, being contaminating solids or dissolved impurities, whereby said separation aid attracts contaminations in the oil during mixing of oil and separation; - mixing said separation aid and contaminated oil into a mixture of contaminated oil and separation aid; and - filtering said mixture through a depth filter directly, without waiting for the separation aid and contaminations in the contaminated oil to sediment to a bottom phase, whereby the depth filter will absorb both separation aid, aggregates of separation aid and contaminations and free contaminations, while pure oil is passing through the depth filter and is collected. - providing contaminated oil and a liquid separation aid to a mixing tank , wherein said liquid separation aid is substantially insoluble in the oil because of its polar properties, forming a two phase mixture upon mixing thus forming colloids consisting of small droplets of the liquid separation aid, which through chemical interactions absorb contaminations, being contaminating solids or dissolved impurities, whereby said separation aid attracts contaminations in the oil during mixing of oil and separation; - mixing said separation aid and contaminated oil into a mixture of contaminated oil and separation aid; and - filtering said mixture through a depth filter directly, without waiting for the separation aid and contaminations in the contaminated oil to sediment to a bottom phase, whereby the depth filter will absorb both separation aid, aggregates of separation aid and contaminations and free contaminations, while pure oil is passing through the depth filter and is collected.
A rotating survey tool , comprising: a first sensor array configured to collect a first set of survey measurements during a downhole drilling operation; and a second sensor array directly coupled to the first sensor array and configured to collect a second set of survey measurements while a drill bit drills during the downhole drilling operation, wherein the second set of survey measurements has a greater base accuracy than the first set of survey measurements, characterized in that the first sensor array comprises a sensor that is configurable to have multiple ranges, and the sensor is configured to switch between the multiple ranges based on drilling conditions of the drilling operation. a first sensor array configured to collect a first set of survey measurements during a downhole drilling operation; and a second sensor array directly coupled to the first sensor array and configured to collect a second set of survey measurements while a drill bit drills during the downhole drilling operation, wherein the second set of survey measurements has a greater base accuracy than the first set of survey measurements, characterized in that the first sensor array comprises a sensor that is configurable to have multiple ranges, and the sensor is configured to switch between the multiple ranges based on drilling conditions of the drilling operation.
Method for controlling controllable power semiconductor switches of a converter assembly with a multiplicity of switching modules (26-28) having controllable power semiconductor switches, in which a control system is provided, which is set up to control the power semiconductor switches of the switching modules (26-28), wherein the control system is equipped with a central control device and - a multiplicity of control modules (32-34, 41-56), each of which is assigned to one of the switching modules (26-28) to be controlled, wherein the central control device is set up to exchange digital data with each control module (32-34, 41-56), wherein the control modules (32-34, 41-56) form a connection network, wherein each control module (32-34, 41-56) is directly connected to more than one other control module (32-34, 41-56) via a communication line, so that data exchange between them is possible, one of the control modules (32-34, 41-56), as the master node of the connection network, is directly connected to the central control device , and wherein the control modules (32-34, 41-56) are set up to form a communication network within the connection network so that the data exchange between the central control device and each control module (32-34, 41-56) can be carried out via a communication path assigned to this control module (32-34, 41-56) within the communication network , wherein each of the control modules automatically defines one of all of the control modules connected to it as the superordinate control module, from which it receives data during operation of the control system, wherein a control module (32-34, 41-56) is assigned to each of the switching modules (26-28), and the control of the power semiconductor switches is carried out by means of the control system , wherein the control modules (32-34, 41-56) form a hierarchical communication network with a tree structure within the connection network, and the data exchange between the central control device and each control module (32-34, 41-56) takes place via a communication path assigned to this control module (32-34, 41-56) within the communication network. - a multiplicity of control modules (32-34, 41-56), each of which is assigned to one of the switching modules (26-28) to be controlled, wherein
Apparatus for treating hair with steam including a housing comprising a liquid container , liquid supply means of a steam generator , one or a plurality of dispensing orifices of the steam produced towards a strand of hair and a hair styling device including at least one treatment surface including heating means and coming into contact with a strand of hair, the styling device including an upper arm including the treatment surface and a lower arm including a treatment surface , each treatment surface is formed from a metal plate coming into thermal contact with an electric heating element, the two arms being mounted hinged around a hinge , the steam generator including a heating element which is thermally independent from said treatment surface , i.e. the steam generator is provided with a heating element specifically for the production of steam, separate from the styling device which includes its own heating element, characterised in that the lower arm includes a deflector arranged facing the dispensing orifice(s) , the deflector including a recessed wall , but parallel to the treatment surface of the lower arm .
A method for washing a hard article, the method comprising: a contact step of bringing a detergent liquid obtained by mixing (a) a potassium internal olefin sulfonate and (b) water having a hardness of 5° DH or more as determined below, into contact with the hard article, and a step of rinsing the hard article after the contact step with water having a hardness of 5° DH or more as determined below, wherein the detergent liquid at 30°C or more is brought into contact with the hard article in at least a part of the contact step, wherein a mass ratio of a potassium internal olefin sulfonate having 16 carbons (hereinafter, referred to as "C 16 IOS-K") and a potassium internal olefin sulfonate having 18 carbons (hereinafter, referred to as "C 18 IOS-K") in (a), C 16 IOS-K/C 18 IOS-K, is 0.1 or less, wherein the ratio of the total of C 16 IOS-K and C 18 IOS-K in component (a) is 50% by mass or more; and wherein, for the hardness of water (° DH), the concentration expressed in terms of CaCO 3 (mg/L) is determined according to Section 15.1.1 "Chelate Titration Method" in Section 15.1 "Total Hardness" in Chapter 15 of JIS K 0101:1998 " Testing Methods for Industrial Water", and this concentration is converted into the hardness of water by the following expression: Hardness of water (° DH) = concentration expressed in terms of CaCO 3 (mg/L) × 0.05603. a contact step of bringing a detergent liquid obtained by mixing (a) a potassium internal olefin sulfonate and (b) water having a hardness of 5° DH or more as determined below, into contact with the hard article, and a step of rinsing the hard article after the contact step with water having a hardness of 5° DH or more as determined below, wherein the detergent liquid at 30°C or more is brought into contact with the hard article in at least a part of the contact step, wherein a mass ratio of a potassium internal olefin sulfonate having 16 carbons (hereinafter, referred to as "C 16 IOS-K") and a potassium internal olefin sulfonate having 18 carbons (hereinafter, referred to as "C 18 IOS-K") in (a), C 16 IOS-K/C 18 IOS-K, is 0.1 or less, wherein the ratio of the total of C 16 IOS-K and C 18 IOS-K in component (a) is 50% by mass or more; and wherein, for the hardness of water (° DH), the concentration expressed in terms of CaCO 3 (mg/L) is determined according to Section 15.1.1 "Chelate Titration Method" in Section 15.1 "Total Hardness" in Chapter 15 of JIS K 0101:1998 " Testing Methods for Industrial Water", and this concentration is converted into the hardness of water by the following expression: Hardness of water (° DH) = concentration expressed in terms of CaCO 3 (mg/L) × 0.05603.
System including an uninterruptible power supply unit and an external power supply , the uninterruptible power supply unit comprising: an input/output terminal connected in parallel with a power line for supplying power from the external power supply to a load device ; a battery unit which includes a first battery pack and a second battery pack , which are connected in series, and wherein a rated voltage of the battery unit is the same as the voltage of the external power supply ; a voltage converter configured to convert the voltage of the external power supply into a voltage corresponding to a difference between the rated voltage of the battery unit and the charging voltage of the battery unit ; a charging circuit configured to charge the first battery pack with the output voltage of the voltage converter , and configured to charge the second battery pack with the voltage of the external power supply ; and a discharging circuit configured to discharge power from the battery unit to the load device through the input/output terminal in an event that the external power supply is interrupted. an input/output terminal connected in parallel with a power line for supplying power from the external power supply to a load device ; a battery unit which includes a first battery pack and a second battery pack , which are connected in series, and wherein a rated voltage of the battery unit is the same as the voltage of the external power supply ; a voltage converter configured to convert the voltage of the external power supply into a voltage corresponding to a difference between the rated voltage of the battery unit and the charging voltage of the battery unit ; a charging circuit configured to charge the first battery pack with the output voltage of the voltage converter , and configured to charge the second battery pack with the voltage of the external power supply ; and a discharging circuit configured to discharge power from the battery unit to the load device through the input/output terminal in an event that the external power supply is interrupted.
A method for a receiver communicating with a transmitter in wireless network, the method comprising: - determining a wireless channel status; - selecting a beamforming scheme according to the determined wireless channel status, wherein the beamforming scheme being digital beamforming or analog beamforming; and - receiving data from the transmitter, according to the selected beamforming scheme; wherein the step of selecting the beamforming scheme according to the determined wireless channel status comprising: - selecting an analog beamforming in response to the determined wireless channel status being coverage limited; or - selecting a digital beamforming in response to the determined wireless channel status being capacity limited. - determining a wireless channel status; - selecting a beamforming scheme according to the determined wireless channel status, wherein the beamforming scheme being digital beamforming or analog beamforming; and - receiving data from the transmitter, according to the selected beamforming scheme; - selecting an analog beamforming in response to the determined wireless channel status being coverage limited; or - selecting a digital beamforming in response to the determined wireless channel status being capacity limited.
A reinforced geocell made of flexible polymeric strips arranged in rows and interconnected in a staggered order lengthwise to form a three-dimensional cell structure when being stretched in a direction normal to surfaces of said strips , the strips provided with drainage apertures and reinforced with reinforcing threads along a longitudinal direction of said strips , characterized in that the reinforcing threads consist of at least two fibrous elements, each fibrous element being twisted along the whole length of each fibrous element, said at least two fibrous elements being twisted along the whole length of a respective reinforcing thread.
A method, comprising: operating a user equipment based on a transmission probability; and characterized by : configuring the transmission probability at the user equipment based on a first classification of the user equipment according to desired or allowed transmission probability, and a system load estimate, wherein the first classification is at least one of: that the user equipment operates at a minimum level of transmission probability regardless of a mean probability of transmission probabilities of a plurality of user equipments; that the user equipment adjusts transmission to the mean probability; or that the user equipment operates at a maximum level of transmission probability regardless of the mean probability. configuring the transmission probability at the user equipment based on a first classification of the user equipment according to desired or allowed transmission probability, and a system load estimate, wherein the first classification is at least one of: that the user equipment operates at a minimum level of transmission probability regardless of a mean probability of transmission probabilities of a plurality of user equipments; that the user equipment adjusts transmission to the mean probability; or that the user equipment operates at a maximum level of transmission probability regardless of the mean probability.
A laundry treating apparatus comprising: a cabinet ; a drum made of a metal material and disposed into the cabinet , wherein the drum receives a laundry therein; and an induction module spaced apart from an outer circumferential face of the drum by a predetermined spacing, wherein the induction module has a coil formed by turns of a wire , wherein the induction module inductively heats the drum using a magnetic field generated by applying a current to the coil , wherein the induction module includes a rectangular shaped base housing for accommodates the coil , wherein the base housing has straight sections (A1) and corner sections (A2), wherein the base housing includes ribs protruding upwards from the base housing and formed in the straight sections (A1) and the corner sections (A2) to define a slot for accommodating the coil therein, characterized in that a thickness of each of the ribs in each corner section (A2) is greater than a thickness of each of the ribs in each straight section (A1) in order to be positioned in the spacings between neighbouring wires at the corner sections (A2) and at the straight sections (A1), respectively. a cabinet ; a drum made of a metal material and disposed into the cabinet , wherein the drum receives a laundry therein; and an induction module spaced apart from an outer circumferential face of the drum by a predetermined spacing, wherein the induction module has a coil formed by turns of a wire , wherein the induction module inductively heats the drum using a magnetic field generated by applying a current to the coil , wherein the induction module includes a rectangular shaped base housing for accommodates the coil , wherein the base housing has straight sections (A1) and corner sections (A2), wherein the base housing includes ribs protruding upwards from the base housing and formed in the straight sections (A1) and the corner sections (A2) to define a slot for accommodating the coil therein, characterized in that a thickness of each of the ribs in each corner section (A2) is greater than a thickness of each of the ribs in each straight section (A1) in order to be positioned in the spacings between neighbouring wires at the corner sections (A2) and at the straight sections (A1), respectively.
A wearable electronic device , comprising: a processor configured to implement a user interface for allowing a user to interact with the wearable electronic device ; a display and a touch panel in communication with the processor , wherein the display and the touch panel provide a touch-sensitive display configured to allow a user to interact with the wearable electronic device on the basis of the user interface by touching the touch panel ; and a bezel rotatably mounted on the housing of the wearable electronic device , wherein the bezel comprises at least two pointing elements (209a-d) configured to activate the touch panel at a plurality of different locations of the touch panel and wherein the plurality of different locations of the touch panel define a plurality of different positions of the bezel relative to the housing allowing the user to interact with the wearable electronic device by using the bezel ; wherein in a default state of the bezel at least one pointing element of the at least two pointing elements (209a-d) is in constant contact with the touch panel and at least one other pointing element of the at least two pointing elements (209a-d) is out of contact with the touch panel . a processor configured to implement a user interface for allowing a user to interact with the wearable electronic device ; a display and a touch panel in communication with the processor , wherein the display and the touch panel provide a touch-sensitive display configured to allow a user to interact with the wearable electronic device on the basis of the user interface by touching the touch panel ; and a bezel rotatably mounted on the housing of the wearable electronic device , wherein the bezel comprises at least two pointing elements (209a-d) configured to activate the touch panel at a plurality of different locations of the touch panel and wherein the plurality of different locations of the touch panel define a plurality of different positions of the bezel relative to the housing allowing the user to interact with the wearable electronic device by using the bezel ; wherein in a default state of the bezel at least one pointing element of the at least two pointing elements (209a-d) is in constant contact with the touch panel and at least one other pointing element of the at least two pointing elements (209a-d) is out of contact with the touch panel .
A method for operating a pump , in particular for operating a multiphase pump , for conveying a fluid from a low-pressure side to a high-pressure side of the pump , wherein a pump vibration (Z) changes with a rate of change (DZ) and a current rate of change of the pump vibration is determined and is compared with a limit for the rate of change (DZ) and / or wherein a current vibration of the pump is determined and is compared with a vibration amplitude limit for the vibration (Z), wherein the limit and / or the vibration amplitude limit is stored in a surge control unit , and a control signal is provided when the current rate of change reaches the limit and / or when the current vibration reaches the vibration amplitude limit , and a control variable of the pump is changed by the control signal, such that the vibration (Z) is reduced and thus an unstable operating state of the pump is avoided, wherein an operating limit for an operating parameter of the pump below which the pump can still be reliably operated in a stable operating state is stored in the surge control unit , and the control signal is provided when a current value of the operating parameter reaches the operating limit and the current rate of change reaches the limit and / or the current vibration reaches vibration amplitude limit , characterized in that the operating limit is used as a first trigger, and the first trigger in the surge control unit provides a first control signal when the operating parameter reaches the operating limit , wherein limit and / or vibration amplitude limit is used as a second trigger in the surge control unit after the first trigger provided the first control signal and the second trigger in the surge control unit provides a second or final control signal, wherein limit and / or the vibration amplitude limit and the operating limit are thereby combined in a cascaded way as a trigger sequence.
An operation command generation device, which is configured to generate an operation command, which is a collection of jobs to be performed by a process system comprising at least a robot, the operation command generation device comprising an input unit configured to input a protocol chart comprising an initial symbol representing a container in which a process subject is stored, an initial position of the container and a job of preparing the container, a final symbol representing the container, a final state of the container, and a job of storing the container in a predetermined position, a container count symbol arranged to be superimposed on the initial symbol , and a procedure line which connects the initial symbol and the final symbol in a predetermined direction by heading from the initial symbol to the final symbol, and a plurality of process symbols , each of which represents an individual process to be performed on the container and is arranged along the procedure line ; a job generation unit configured to generate, based on the protocol chart, a job for each process indicated by the initial symbol, the final symbol, and each of the plurality of process symbols; a priority instruction unit configured to instruct a priority of a condition for determining a job execution order; and an execution order determination unit configured to determine, when there are a plurality of containers, an execution order of the jobs generated by the job generation unit based on the priority instructed by the priority instruction unit by using at least a condition : that each job corresponding to each of the plurality of process symbols is to be repeatedly executed the same number of times as a count of the plurality of containers represented by the container count symbol; and a condition : that each job corresponding to each of the plurality of process symbols is to be executed in an order corresponding to an arrangement order of each of the plurality of process symbols in the protocol chart, wherein the priority instruction unit comprises: a normal process instruction unit configured to instruct the condition to be prioritized over the condition ; and a consecutive process instruction unit configured to instruct, for a plurality of process symbols for which a consecutive process is specified, the condition to be prioritized over the condition . a normal process instruction unit configured to instruct the condition to be prioritized over the condition ; and a consecutive process instruction unit configured to instruct, for a plurality of process symbols for which a consecutive process is specified, the condition to be prioritized over the condition .