mhurhangee/patent-ind-claim-en huggingface dataset:
A method for fertigation of plants comprising - a provision of a series of stock solutions comprising a stock solution comprising iron and at least one polyphosphate, at basic pH or at pH between 4.5 and 6.2, advantageously greater than or equal to 5.0 and lower than or equal to 6.0, preferably a pH greater than or equal to 5.5, formed by adding iron and at least one polyphosphate to an aqueous phase, - feeding each of the stock solutions into a diluting system to form a fertigation solution, - feeding a fertigation device by means of a transfer device, supplying said fertigation device with said fertigation solution, with the proviso that if said stock solution is at basic pH, a sufficient amount of acid is added to said diluting system prior to feeding said stock solution, and sufficiently intensive mixing conditions at a point of feeding said stock solution to said diluting system are provided so that said fertigation solution has a pH below 6.2. - a provision of a series of stock solutions comprising a stock solution comprising iron and at least one polyphosphate, at basic pH or at pH between 4.5 and 6.2, advantageously greater than or equal to 5.0 and lower than or equal to 6.0, preferably a pH greater than or equal to 5.5, formed by adding iron and at least one polyphosphate to an aqueous phase, - feeding each of the stock solutions into a diluting system to form a fertigation solution, - feeding a fertigation device by means of a transfer device, supplying said fertigation device with said fertigation solution,
A production apparatus for preparing a metal clad plate in a short process, comprising a base material supply device consisting of an uncoiler , a pinch roll , a shot blasting machine , a welding device , a welding pinch roll , and an induction heating equipment , and comprising: a flow distributor , two molding cooling rolls , a secondary cooling leveling roll , a rolling mill pinch roll , a rolling mill , an online cooling equipment , a leveler , and at least one of a dividing shear and a coiler , wherein there are two base material supply devices that are arranged on both sides of the two molding cooling rolls , the flow distributor is arranged above the molding cooling rolls , and is used to cast molten steel between the two molding cooling rolls to form a molten metal pool (B), the two molding cooling rolls are used to respectively receive base material strips (A) conveyed from the two base material supply devices, so that each base material strip (A) is immersed into the molten metal pool along the corresponding molding cooling roll and then rolled into a cladding slab (C), the secondary cooling leveling roll is used to flatten the cladding slab (C) conveyed from the two molding cooling rolls , the rolling mill pinch roll is used to convey the flattened cladding slab (C), the rolling mill is used to roll the cladding slab (C) conveyed from the rolling mill pinch roll to form a cladding strip (D), the online cooling equipment is used to cool the cladding strip (D) conveyed from the rolling mill , the leveler is used to level the cooled cladding strip (D), the dividing shear is used to perform cut-to-length on the leveled cladding strip (D), and the coiler is used to coil the leveled cladding strip (D).
A method of cutting a log , the method comprising: causing a first cutting device to cut at least one flat face along the log according to a first cut solution for the log to thereby obtain a first cant ; determining a geometric profile of the flat face based on data obtained by one or more geometric sensors positioned to scan the flat face; detecting a split along the flat face based at least on the geometric profile; modifying at least a first portion of the first cut solution based at least on the geometric profile and the detected split; and causing one or more second cutting devices to cut the first cant into < center cant and one or more additional pieces according to the modified cut solution. causing a first cutting device to cut at least one flat face along the log according to a first cut solution for the log to thereby obtain a first cant ; determining a geometric profile of the flat face based on data obtained by one or more geometric sensors positioned to scan the flat face; detecting a split along the flat face based at least on the geometric profile; modifying at least a first portion of the first cut solution based at least on the geometric profile and the detected split; and causing one or more second cutting devices to cut the first cant into < center cant and one or more additional pieces according to the modified cut solution.
An electronic man-machine interface system comprising a touch sensor , a driver for said touch sensor, an electronic pairing circuit connected to said driver and at least one removable accessory (4 to 6) for customising said touch sensor , said removable accessory (4 to 6) comprising an electronic memory and means for remote communication with said electronic pairing circuit, the system comprising means for detecting the presence of said removable accessory (4 to 6) on the surface of the touch sensor and for initiating a step of configuration of the signals delivered said driver depending on the information recorded in said memory of the detected accessory and read by said electronic pairing circuit, characterised in that said accessory (4 to 6) is constituted by a three-dimensional part which is formed by an interchangeable flexible sheet having characteristic reliefs and is made of an elastically deformable material and having a lower surface with a thickness of between 1 and 5 millimetres and complementary to at least part of the tactile sensor , for transmitting the forces exerted on the outer surface of the accessory (4 to 6) to the tactile sensor .
Hydraulic damping wedge comprising: - two columns of fluid , - each fluid column having one end placed in communication with a main hydraulic inflation chamber , known as the working chamber, this main hydraulic inflation chamber being common to all the fluid columns , - the other end of each column of fluid being placed in communication with a clean hydraulic inflation chamber called compensation, specific to each column of fluid , - one of the own hydraulic inflation chambers having a inflation stiffness (Km1) greater than or equal to a inflation stiffness (Kg) of the main hydraulic inflation chamber , characterized in that said hydraulic damping wedge further comprises: - a decoupling device at low frequencies placed in series with one of the columns of fluid connecting the main hydraulic inflation chamber to its own inflation chamber . - two columns of fluid , - each fluid column having one end placed in communication with a main hydraulic inflation chamber , known as the working chamber, this main hydraulic inflation chamber being common to all the fluid columns , - the other end of each column of fluid being placed in communication with a clean hydraulic inflation chamber called compensation, specific to each column of fluid , - one of the own hydraulic inflation chambers having a inflation stiffness (Km1) greater than or equal to a inflation stiffness (Kg) of the main hydraulic inflation chamber , - a decoupling device at low frequencies placed in series with one of the columns of fluid connecting the main hydraulic inflation chamber to its own inflation chamber .
A washing machine comprising: a drum in which laundry is accommodated; a motor configured to rotate the drum ; a speed sensor configured to detect a rotational speed of the drum ; and a processor configured to: identify a mass of the laundry corresponding to each of a first acceleration section and a second acceleration section based on the rotational speed detected by the speed sensor , and control the motor such that an absolute value of the rotational speed at a start time of the first acceleration section is substantially the same as an absolute value of the rotational speed at a start time of the second acceleration section , wherein a rotational direction of the drum corresponding to the rotational speed at the start time of the first acceleration section is opposite to a rotational direction of the drum corresponding to the rotational speed at the start time of the second acceleration section . a drum in which laundry is accommodated; a motor configured to rotate the drum ; a speed sensor configured to detect a rotational speed of the drum ; and a processor configured to: identify a mass of the laundry corresponding to each of a first acceleration section and a second acceleration section based on the rotational speed detected by the speed sensor , and control the motor such that an absolute value of the rotational speed at a start time of the first acceleration section is substantially the same as an absolute value of the rotational speed at a start time of the second acceleration section , wherein a rotational direction of the drum corresponding to the rotational speed at the start time of the first acceleration section is opposite to a rotational direction of the drum corresponding to the rotational speed at the start time of the second acceleration section . identify a mass of the laundry corresponding to each of a first acceleration section and a second acceleration section based on the rotational speed detected by the speed sensor , and control the motor such that an absolute value of the rotational speed at a start time of the first acceleration section is substantially the same as an absolute value of the rotational speed at a start time of the second acceleration section , wherein a rotational direction of the drum corresponding to the rotational speed at the start time of the first acceleration section is opposite to a rotational direction of the drum corresponding to the rotational speed at the start time of the second acceleration section .
A fluid reservoir assembly, comprising: a housing including a reservoir , the reservoir storing a cosmetic fluid; an applicator assembly comprising a cap and a stick or stem extending downwardly therefrom, the stick or stem being insertable into the reservoir along a path, the stick or stem including, at an opposite end to the cap, an applicator to carry the cosmetic fluid; and an upper and a lower seal included within the housing and enclosing the reservoir when in a neutral position, wherein an antechamber is formed between the upper and lower seals , each of the upper and lower seals including a plurality of flaps deflectable by the applicator assembly to form an opening through the seal , the seal being configured to return to the neutral position when the applicator assembly is not in engagement with the seal ; the seals being configured to tightly wrap around the stick and the applicator so that air is substantially prevented from entering the reservoir when the applicator assembly is inserted; the flaps (162, 164, 166 and 168) contact one another in the neutral position, which sufficiently prevents the passage of air through the seals; and wherein the seals are generally flat, or generally bow upwardly, when in the neutral position. a housing including a reservoir , the reservoir storing a cosmetic fluid; an applicator assembly comprising a cap and a stick or stem extending downwardly therefrom, the stick or stem being insertable into the reservoir along a path, the stick or stem including, at an opposite end to the cap, an applicator to carry the cosmetic fluid; and an upper and a lower seal included within the housing and enclosing the reservoir when in a neutral position, wherein an antechamber is formed between the upper and lower seals , each of the upper and lower seals including a plurality of flaps deflectable by the applicator assembly to form an opening through the seal , the seal being configured to return to the neutral position when the applicator assembly is not in engagement with the seal ; the seals being configured to tightly wrap around the stick and the applicator so that air is substantially prevented from entering the reservoir when the applicator assembly is inserted; the flaps (162, 164, 166 and 168) contact one another in the neutral position, which sufficiently prevents the passage of air through the seals; and wherein the seals are generally flat, or generally bow upwardly, when in the neutral position.
Emergency braking system for a vehicle , in particular a commercial vehicle, wherein the emergency braking system comprises an emergency brake control unit for controlling the emergency braking system on the basis of a parameter set (P.1), characterized in that a parameter set (P.1) can be selected by the emergency brake control unit from a plurality of parameter sets (P.j) for controlling the emergency braking system , wherein the plurality of parameter sets (P.j) are each assigned to a vehicle variant (V.j) and the respective parameter set (P.j) adapts the emergency braking system to the respective vehicle variant (V.j), wherein the vehicle variant (V.j) is characterized by a design of a braking system of the respective vehicle variant (V.j) for adapting the emergency braking system of the respective vehicle variant (V.j) to the design of the braking system of this vehicle variant (V.j), wherein a parameter set (P.1) is selected by the emergency brake control unit , which is assigned to the vehicle variant (V.1) which characterizes the current present vehicle . characterized in that a parameter set (P.1) can be selected by the emergency brake control unit from a plurality of parameter sets (P.j) for controlling the emergency braking system , wherein the plurality of parameter sets (P.j) are each assigned to a vehicle variant (V.j) and the respective parameter set (P.j) adapts the emergency braking system to the respective vehicle variant (V.j), wherein the vehicle variant (V.j) is characterized by a design of a braking system of the respective vehicle variant (V.j) for adapting the emergency braking system of the respective vehicle variant (V.j) to the design of the braking system of this vehicle variant (V.j), wherein a parameter set (P.1) is selected by the emergency brake control unit , which is assigned to the vehicle variant (V.1) which characterizes the current present vehicle .
A method comprising: receiving, at a media studio, first and second media units with respective first and second time stamps that are assigned based on a first clock cycle time associated with a first media device and a data transmission rate defined as a rate of streaming media units per time unit from the first media device; adjusting the second time stamp using the first clock cycle time, a second clock cycle time associated with the media studio, the second time stamp, and the transmission rate, wherein the second clock cycle time is different from the first clock cycle time; and assigning the adjusted second time stamp to the second media unit; wherein the adjusted second time stamp is a nearest possible time stamp to the second time stamp that is divisible by the second clock cycle time. receiving, at a media studio, first and second media units with respective first and second time stamps that are assigned based on a first clock cycle time associated with a first media device and a data transmission rate defined as a rate of streaming media units per time unit from the first media device; adjusting the second time stamp using the first clock cycle time, a second clock cycle time associated with the media studio, the second time stamp, and the transmission rate, wherein the second clock cycle time is different from the first clock cycle time; and assigning the adjusted second time stamp to the second media unit; wherein the adjusted second time stamp is a nearest possible time stamp to the second time stamp that is divisible by the second clock cycle time.
A system for remotely monitoring the operation of a radiation sensor , comprising: a radiation sensor configured to detect a presence of radiation in an area, the radiation sensor including a Geiger-Muller tube ; a test signal generator configured to generate a high frequency test signal used to test the radiation sensor , the high frequency test signal transmitted to the radiation sensor; and a test signal detector configured to detect a response of the radiation sensor to the test signal, said system being characterized in said test signal detector configured to determine whether the radiation sensor is operating correctly based on an amplitude and a frequency of the response. a radiation sensor configured to detect a presence of radiation in an area, the radiation sensor including a Geiger-Muller tube ; a test signal generator configured to generate a high frequency test signal used to test the radiation sensor , the high frequency test signal transmitted to the radiation sensor; and a test signal detector configured to detect a response of the radiation sensor to the test signal, said system being characterized in said test signal detector configured to determine whether the radiation sensor is operating correctly based on an amplitude and a frequency of the response.
A transmitting method based on MPEG Media Transmission, MMT, comprising: encoding (S10) a video signal and generating encoded data including a plurality of access units; storing (S11) the plurality of access units in a packet in a unit that defines one access unit as one unit or in a unit defined by dividing one access unit, and generating a packet group; transmitting (S12) the generated packet group as data to a receiving device; generating first information and second information, the first information indicating a presentation time of a first access unit that is presented first among the plurality of access units, and the second information being used to calculate a decoding time of the plurality of access units, wherein the second information is generated after generating the data; and transmitting the first information and the second information respectively as MPU, Media Processing Unit, meta data and MF, Movie Fragment, meta data corresponding to the data to the receiving device, characterized by the MPU meta data, the MF meta data and the data being transmitted respectively in different packets, wherein the first information, the second information, and the data are transmitted in a predetermined order out of a plurality of orders, and signaling information indicating the predetermined order. encoding (S10) a video signal and generating encoded data including a plurality of access units; storing (S11) the plurality of access units in a packet in a unit that defines one access unit as one unit or in a unit defined by dividing one access unit, and generating a packet group; transmitting (S12) the generated packet group as data to a receiving device; generating first information and second information, the first information indicating a presentation time of a first access unit that is presented first among the plurality of access units, and the second information being used to calculate a decoding time of the plurality of access units, wherein the second information is generated after generating the data; and transmitting the first information and the second information respectively as MPU, Media Processing Unit, meta data and MF, Movie Fragment, meta data corresponding to the data to the receiving device, characterized by the MPU meta data, the MF meta data and the data being transmitted respectively in different packets, wherein the first information, the second information, and the data are transmitted in a predetermined order out of a plurality of orders, and signaling information indicating the predetermined order.
A streaming transmission method, comprising: receiving, by a network element in a Multimedia Broadcast Multicast Service, MBMS, system from a content provider, a data source to be transmitted, wherein the data source to be transmitted comprises a first media description file and one or more corresponding media segment files, and the first media description file is used to describe streaming data features of the one or more media segment files (S102); in a case where the data source to be transmitted is a non-Dynamic Adaptive Streaming over Hyper Text Transfer Protocol, non-DASH, data source, converting, by the network element in the MBMS system, a format of the first media description file into a DASH Media Presentation Description, MPD, format to obtain a second media description file (S104); and broadcasting, by the network element in the MBMS system, contents in the second media description file and the one or more media segment files (S106). receiving, by a network element in a Multimedia Broadcast Multicast Service, MBMS, system from a content provider, a data source to be transmitted, wherein the data source to be transmitted comprises a first media description file and one or more corresponding media segment files, and the first media description file is used to describe streaming data features of the one or more media segment files (S102); in a case where the data source to be transmitted is a non-Dynamic Adaptive Streaming over Hyper Text Transfer Protocol, non-DASH, data source, converting, by the network element in the MBMS system, a format of the first media description file into a DASH Media Presentation Description, MPD, format to obtain a second media description file (S104); and broadcasting, by the network element in the MBMS system, contents in the second media description file and the one or more media segment files (S106).
A dispenser mounting assembly for a dispenser of consumables, the dispenser mounting assembly comprising a mounting unit for attaching the assembly to a surface, dispenser retaining means configured to receive a dispenser , and a sensor , wherein the mounting unit comprising guidance and retention means for operably engaging the dispenser retaining means , wherein the sensor , mounting unit and dispenser retaining means are arranged such that the sensor can monitor the quantity of consumables stored in any dispenser attached to the dispenser retaining means , wherein the dispenser mounting assembly further comprises one or more additional sensors ; wherein a plurality of said sensors have different sensitivities across and overlapping range of inputs, wherein the dispenser mounting assembly is configured to switch between the sensors depending on the value of the inputs detected. a mounting unit for attaching the assembly to a surface, dispenser retaining means configured to receive a dispenser , and a sensor , wherein the mounting unit comprising guidance and retention means for operably engaging the dispenser retaining means , wherein the sensor , mounting unit and dispenser retaining means are arranged such that the sensor can monitor the quantity of consumables stored in any dispenser attached to the dispenser retaining means , wherein the dispenser mounting assembly further comprises one or more additional sensors ; wherein a plurality of said sensors have different sensitivities across and overlapping range of inputs, wherein the dispenser mounting assembly is configured to switch between the sensors depending on the value of the inputs detected.