mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining an end-of-charge criterion of a nickel-based electrochemical battery characterised in that it comprises: - establishment of an efficiency curve representative of the charging efficiency versus the charged capacity in the battery , - selection of a maximum charge capacity corresponding to a break in the slope of the efficiency curve, - establishment of at least one voltage curve representative of the battery voltage versus the charged capacity for a given temperature representative of the temperature of the battery , - using the corresponding voltage curve to determine a voltage threshold representative of the end-of-charge criterion corresponding to said maximum charge capacity value, for each temperature. - establishment of an efficiency curve representative of the charging efficiency versus the charged capacity in the battery , - selection of a maximum charge capacity corresponding to a break in the slope of the efficiency curve, - establishment of at least one voltage curve representative of the battery voltage versus the charged capacity for a given temperature representative of the temperature of the battery , - using the corresponding voltage curve to determine a voltage threshold representative of the end-of-charge criterion corresponding to said maximum charge capacity value, for each temperature.
An agricultural machine, comprising: - a frame provided with a pair of wheels designed to enable the movement of the agricultural machine in one direction of movement (A) and placed side-by-side and spaced transversely in said direction of movement (A); - at least two harvesting devices for agricultural products connected to the frame that, in at least one work position, are arranged frontally to said wheels and aligned with each other transversely to said direction of movement (A); - unloading equipment arranged operationally downstream of the harvesting devices to receive the harvested agricultural products and to move them in an unloading direction (B) transverse to the direction of movement (A), wherein, in at least one work position, the unloading equipment : is placed between said harvesting devices and said wheels , and comprises at least one central unloading device and two lateral unloading devices aligned between them transversely to said direction of movement (A); characterised in that said central unloading device is movable with respect to the harvesting devices between said work position, wherein it directly receives the harvested agricultural products from at least one first harvesting device , and a non-operational position, wherein it is offset with respect to the work position so as to enable the harvested agricultural products to fall immediately downstream of said at least one first harvesting device . - a frame provided with a pair of wheels designed to enable the movement of the agricultural machine in one direction of movement (A) and placed side-by-side and spaced transversely in said direction of movement (A); - at least two harvesting devices for agricultural products connected to the frame that, in at least one work position, are arranged frontally to said wheels and aligned with each other transversely to said direction of movement (A); - unloading equipment arranged operationally downstream of the harvesting devices to receive the harvested agricultural products and to move them in an unloading direction (B) transverse to the direction of movement (A), wherein, in at least one work position, the unloading equipment : is placed between said harvesting devices and said wheels , and comprises at least one central unloading device and two lateral unloading devices aligned between them transversely to said direction of movement (A); is placed between said harvesting devices and said wheels , and comprises at least one central unloading device and two lateral unloading devices aligned between them transversely to said direction of movement (A);
A non-therapeutic method of controlling phytopathogenic fungi and/or undesired plant growth and/or undesired insect or mite attack and/or for regulating the growth of plants, wherein an agrochemical composition comprising a pesticide and an alkoxylate of the formula (I) R 1 -[AO 1 ] n -O-C(O)-O-[AO 2 ] m -R 2 (I) where R 1 and R 2 are independently a linear or branched, saturated or unsaturated C 8 -C 20 alkyl group, AO 1 and AO 2 are an ethyleneoxy group, and n and m are independently a value from 2,5 to 20, is allowed to act on the respective pests, their environment or the crop plants to be protected from the respective pest, on the soil and/or on undesired plants and/or on the crop plants and/or on their environment. R 1 and R 2 are independently a linear or branched, saturated or unsaturated C 8 -C 20 alkyl group, AO 1 and AO 2 are an ethyleneoxy group, and n and m are independently a value from 2,5 to 20, is allowed to act on the respective pests, their environment or the crop plants to be protected from the respective pest, on the soil and/or on undesired plants and/or on the crop plants and/or on their environment.
A method for preparing hydridosilane oligomers, comprising: reacting a hydridosilane composition (I) comprising at least one linear hydridosilane Si n H 2n+2 with n ≥ 2 in the presence of a branched hydridosilane compound (II), wherein the branched hydridosilane compound (II) comprises at least one quaternary silicon atom Si(SiR 3 ) 4 , wherein R is chosen from the group consisting of H; Si n H 2n+1 with n ≥ 1; Si m H 2m with m ≥ 2; and Si j H 2j-1 with j ≥ 3. reacting a hydridosilane composition (I) comprising at least one linear hydridosilane Si n H 2n+2 with n ≥ 2 in the presence of a branched hydridosilane compound (II), wherein the branched hydridosilane compound (II) comprises at least one quaternary silicon atom Si(SiR 3 ) 4 , wherein R is chosen from the group consisting of H; Si n H 2n+1 with n ≥ 1; Si m H 2m with m ≥ 2; and Si j H 2j-1 with j ≥ 3.
An apparatus for wireless communications, comprising: a memory ; and a processor coupled with the memory , the memory and the processor configured to: receive downlink control information, DCI, according to a DCI format that can schedule a plurality of physical uplink shared channel, PUSCH, transmissions across a plurality of transmission time intervals, TTIs, wherein at least one field of the DCI is assigned one or more bits for each of a maximum number of PUSCH transmissions that can be scheduled by the DCI; determine that the DCI schedules a portion of the maximum number of that can be scheduled by the DCI; and interpret one or more unused bits assigned to the at least one field as code block group transmission information, CBGTI, for the scheduled PUSCH transmissions, the one or more unused bits corresponding to a remaining unscheduled portion of the maximum number of PUSCH transmissions. a memory ; and a processor coupled with the memory , the memory and the processor configured to: receive downlink control information, DCI, according to a DCI format that can schedule a plurality of physical uplink shared channel, PUSCH, transmissions across a plurality of transmission time intervals, TTIs, wherein at least one field of the DCI is assigned one or more bits for each of a maximum number of PUSCH transmissions that can be scheduled by the DCI; determine that the DCI schedules a portion of the maximum number of that can be scheduled by the DCI; and interpret one or more unused bits assigned to the at least one field as code block group transmission information, CBGTI, for the scheduled PUSCH transmissions, the one or more unused bits corresponding to a remaining unscheduled portion of the maximum number of PUSCH transmissions. receive downlink control information, DCI, according to a DCI format that can schedule a plurality of physical uplink shared channel, PUSCH, transmissions across a plurality of transmission time intervals, TTIs, wherein at least one field of the DCI is assigned one or more bits for each of a maximum number of PUSCH transmissions that can be scheduled by the DCI; determine that the DCI schedules a portion of the maximum number of that can be scheduled by the DCI; and interpret one or more unused bits assigned to the at least one field as code block group transmission information, CBGTI, for the scheduled PUSCH transmissions, the one or more unused bits corresponding to a remaining unscheduled portion of the maximum number of PUSCH transmissions.
Cosmetic use of HRGPs from Ajuga reptans cells, for at least one action chosen among a reduction in sagging and a reduction in the loss of elasticity of the skin and/or its appendages and/or the mucous membranes.
A work vehicle comprising: a controller ; an engine ; a hydrostatic transmission including a traveling pump driven by the engine , a hydraulic circuit connected to the traveling pump , and a traveling motor connected to the traveling pump through the hydraulic circuit ; a work implement pump driven by the engine ; a work implement driven by hydraulic fluid discharged from the work implement pump ; an accelerator ; a first sensor that outputs a signal indicative of an operation amount of the accelerator ; and a work implement operating member ; characterized by a second sensor that outputs a signal indicative of an operation amount of the work implement operating member ; and wherein the controller is configured to receive signals from the first sensor and the second sensor 68, determine a target input horsepower input to the hydrostatic transmission from the operation amount of the accelerator , and determine a target rotational speed of the engine from the target input horsepower and the operation amount of the work implement operating member . a controller ; an engine ; a hydrostatic transmission including a traveling pump driven by the engine , a hydraulic circuit connected to the traveling pump , and a traveling motor connected to the traveling pump through the hydraulic circuit ; a work implement pump driven by the engine ; a work implement driven by hydraulic fluid discharged from the work implement pump ; an accelerator ; a first sensor that outputs a signal indicative of an operation amount of the accelerator ; and a work implement operating member ; characterized by a second sensor that outputs a signal indicative of an operation amount of the work implement operating member ; and wherein the controller is configured to receive signals from the first sensor and the second sensor 68, determine a target input horsepower input to the hydrostatic transmission from the operation amount of the accelerator , and determine a target rotational speed of the engine from the target input horsepower and the operation amount of the work implement operating member .
A cooler comprising at least one cooler compartment , at least one special compartment provided in the cooler compartment maintained at a temperature lower than the cooler compartment , at least one compressor enabling circulating a refrigerant fluid by compressing it, at least one evaporator enabling the cooler compartment to be cooled, at least one fan enabling air circulation in the cooler compartment , at least one first heat sensor measuring the temperature in the cooler compartment and at least one second heat sensor measuring the temperature in the special compartment , at least one control unit configured to determine the times at which the fan is turned on and off at least during the operating or halted durations of the compressor , by controlling the data received at least from the first heat sensor and the second heat sensor characterized by the control unit configured to not turn the fan on until the cooler compartment temperature (T FF ) reaches an upper limit temperature (T FF-ul ) or until the special compartment temperature (T ZD ) reaches a lower limit temperature (T ZD-ll ), and to turn the fan on upon the cooler compartment temperature (T FF ) reaching said upper limit temperature (T FF-ul ) or upon the special compartment temperature (T ZD ) reaching said lower limit temperature (T ZD-ll ), during the halted duration of the compressor .
A method for deploying a package to a set of devices in a fleet comprising hardware configurable to perform functions related to customer workloads, the method comprising: first scanning hardware in a first stage to determine whether a selected diversity target for deploying the package is met, wherein the first scanning further comprises generating a first information regarding a first minimum scanning tree comprising a first subset of the set of devices in the first stage, wherein the first stage comprises hardware configured to handle functions unrelated to the customer workloads, and wherein the selected diversity target is based on a package type associated with the package and/or a type of impact associated with the package; if the selected diversity target for deploying the package is met after the first scanning, then using a processor, deploying the package to the first subset of the set of devices in the first stage based on instructions associated with the package; if the selected diversity target for deploying the package is not met after the first scanning , then second scanning hardware in a second stage to determine whether the selected diversity target for deploying the package is met, wherein the second stage comprises hardware configured to handle at least a subset of the customer workloads; and if the selected diversity target for deploying the package is met after the second scanning, then using the processor, deploying the package to the first subset of the set of devices in the first stage and to a second subset of the set of devices in the second stage based on the instructions associated with the package. first scanning hardware in a first stage to determine whether a selected diversity target for deploying the package is met, wherein the first scanning further comprises generating a first information regarding a first minimum scanning tree comprising a first subset of the set of devices in the first stage, wherein the first stage comprises hardware configured to handle functions unrelated to the customer workloads, and wherein the selected diversity target is based on a package type associated with the package and/or a type of impact associated with the package; if the selected diversity target for deploying the package is met after the first scanning, then using a processor, deploying the package to the first subset of the set of devices in the first stage based on instructions associated with the package; if the selected diversity target for deploying the package is not met after the first scanning , then second scanning hardware in a second stage to determine whether the selected diversity target for deploying the package is met, wherein the second stage comprises hardware configured to handle at least a subset of the customer workloads; and if the selected diversity target for deploying the package is met after the second scanning, then using the processor, deploying the package to the first subset of the set of devices in the first stage and to a second subset of the set of devices in the second stage based on the instructions associated with the package.
A method for locating an optical QR or Aztec code in an image having a plurality of pixels using a finder pattern of the optical code , wherein first at least one candidate position for a finder pattern is determined on the basis of edge transitions along at least one line through the image and then the position of the finder pattern is determined in a neighborhood of the candidate position , wherein in the position found it is verified, on the basis of a known property of a finder pattern, that the image has a finder pattern in this position , characterized in that , in order to determine the position of the finder pattern in a neighborhood of the candidate position , the respective next three edge transitions are determined along rays emanating in a star shape from the candidate position , and in that the respective first edge transitions of the rays are joined to form a first ring , the respective second edge transitions of the rays are joined to form a second ring and/or the respective third edge transitions are joined to form a third ring .
A system, comprising a first electronic device according to the electronic device of claim 5 and an accessory device according to the accessory device of claim 8.
A refrigerator comprising: an inner case that defines a storage space; an outer case spaced apart a distance from the inner case , the outer case and the inner case defining, between the outer case and the inner case , a vacuum space that is maintained at a partial vacuum pressure and that is configured to insulate the inner case from the outer case ; an evaporator ; and a condenser ; characterized in that the refrigerator further comprises a liquid-gas interchanger that is arranged in the vacuum space and that is configured to facilitate heat exchange between refrigerant exhausted from the evaporator and refrigerant exhausted from the condenser ; and a plurality of guide rings configured to make the liquid-gas interchanger distant from the inner case and the outer case , or distant from a support plate adjacent thereto. an inner case that defines a storage space; an outer case spaced apart a distance from the inner case , the outer case and the inner case defining, between the outer case and the inner case , a vacuum space that is maintained at a partial vacuum pressure and that is configured to insulate the inner case from the outer case ; an evaporator ; and a condenser ; characterized in that the refrigerator further comprises a liquid-gas interchanger that is arranged in the vacuum space and that is configured to facilitate heat exchange between refrigerant exhausted from the evaporator and refrigerant exhausted from the condenser ; and a plurality of guide rings configured to make the liquid-gas interchanger distant from the inner case and the outer case , or distant from a support plate adjacent thereto. a liquid-gas interchanger that is arranged in the vacuum space and that is configured to facilitate heat exchange between refrigerant exhausted from the evaporator and refrigerant exhausted from the condenser ; and a plurality of guide rings configured to make the liquid-gas interchanger distant from the inner case and the outer case , or distant from a support plate adjacent thereto.
Protective device for a circuit , which has a trigger unit with a signal input for signal data sets of analog/digitally converted signals corresponding to operating variables, and a control output for a protective actuator , which control output is applied with a control signal by the trigger unit in dependence of the signal data sets, wherein the protective device has a test unit and a test interface connected to the test unit for the input of test signal packets and for the output of protocol data packets and wherein the test unit is connected to the trigger unit for inputting test signal data sets, characterized in that the test unit comprises a recording module connected to the trigger unit for storing protocol data sets in protocol data packets.
Lamination device, wherein the lamination device comprises at least one membrane element, wherein the lamination device comprises at least one force distribution element , wherein the at least one force distribution element is capable of distributing a lamination force that the membrane element can transmit to or exert on a lamination object over at least part of an area of a membrane-side surface of the lamination object, characterized in that the at least one force distribution element is mounted on the lamination device , wherein the lamination device comprises at least one holding element for holding the at least one force distribution element , wherein the holding element is in the form of a web .
A method for fabricating a multilayered antenna, comprising the non-ordered steps of: fabricating a top substrate by forming radiating elements on a top surface of a first insulating plate, and forming a plurality of corresponding delay lines on a bottom surface of the first insulating plate; fabricating a bottom substrate by forming a common ground electrode on a top surface of a second insulating plate, the common ground electrode having a plurality of apertures , and forming a plurality of conductive feed lines on a bottom surface of the second insulating plate; forming an alignment layer : on the top surface of the bottom substrate, on the bottom surface of the top substrate, or on the top surface of the bottom substrate and on the bottom surface of the top substrate; providing insulating spacers over the alignment layer; attaching a sealer over the periphery of the top surface of the bottom substrate or the bottom surface of the top substrate; flowing liquid crystal among the insulating spacers; and, attaching the bottom substrate to the top substrate. fabricating a top substrate by forming radiating elements on a top surface of a first insulating plate, and forming a plurality of corresponding delay lines on a bottom surface of the first insulating plate; fabricating a bottom substrate by forming a common ground electrode on a top surface of a second insulating plate, the common ground electrode having a plurality of apertures , and forming a plurality of conductive feed lines on a bottom surface of the second insulating plate; forming an alignment layer : on the top surface of the bottom substrate, on the bottom surface of the top substrate, or on the top surface of the bottom substrate and on the bottom surface of the top substrate; providing insulating spacers over the alignment layer; attaching a sealer over the periphery of the top surface of the bottom substrate or the bottom surface of the top substrate; flowing liquid crystal among the insulating spacers; and, attaching the bottom substrate to the top substrate.
A method for controlling an agricultural working machine which in particular serves to pick up and process a flow of harvested material , with a control device , with at least one operating unit and with a main drive for driving the operating unit , wherein the operating unit is driven from the main drive via a drive train , wherein the drive train or a portion of the drive train produces an actual transmission ratio which depends on the status of the drive train, wherein the drive train status is represented by a notional no-load transmission ratio, wherein under a load (B) on the drive train , the drive for the operating unit is permanently associated with a transmission ratio delta (d) between the actual transmission ratio and the no-load transmission ratio, characterized in that a variation in the transmission ratio delta (d) and a variation in the load (B) on the drive train are detected independently of one another by means of the control device and from this, an overload operation of the drive train is identified.