mhurhangee/ep-ind-claims huggingface dataset:
Radio remote control system for building closure drives (30, 28, 34, 36, 38) and/or building closure actuators (14, 16) or other components of an automatic building closure system, comprising at least one radio remote control transmitter (52, 54, 56) and first and second radio remote control receivers (46, 48), the first and second radio remote control receivers (46, 48) each switching between active and inactive phases, characterized in that said radio remote control transmitter (52, 54, 56) is adapted to emit a first remote control signal for driving said first radio remote control receiver and to emit a second remote control signal for driving said second radio remote control receiver such that the first and the second remote control signals (62, 64) each have a preamble (66, 68) of a specific length PL1, PL2 and a command section, the preamble (66, 68) serving to activate the radio reception readiness of the associated radio remote control receiver (46, 48) and the command section contains command signal information to be received by the radio remote control receiver (46, 48), wherein the length PL1 of the preamble of the first remote control signal is greater than the length PL2 of the preamble of the second remote control signal, wherein the length PL1 is at least as large as an inactive phase T1 of the first radio remote control receiver and the length PL2 is at least as large as an inactive phase T2 of the second radio remote control receiver, the inactive phase T1 being longer than the inactive phase T2.
Method for producing a renewable base oil from a feedstock of biological origin, the method comprising: a) providing a feedstock, the feedstock comprising 2-95 wt% of a mixture of free fatty acids; 5-98 wt% fatty acid glycerols selected from mono-glycerides, di-glycerides and tri-glycerides of fatty acids; 0-50 wt%, preferably at least 10 wt%, of one or more compounds selected from the list consisting of: fatty acid esters of the non-glycerol type, fatty amides and fatty alcohols; wherein at least 50 wt% of the feedstock being the mixture of free fatty acids and fatty acid glycerols; b) subjecting all or part of the feedstock to ketonisation reaction conditions in the presence of a ketonisation catalyst selected as a metal oxide catalyst essentially comprising titanium as the metal, wherein the content of the element potassium is 0.05 wt% or less; and wherein two free fatty acids react to yield a ketone stream, the ketone stream comprising as the major part saturated ketones; and c) subjecting the ketone stream to both hydrodeoxygenation reaction conditions and to hydroisomerisation reaction conditions, simultaneously or in sequence, to yield a deoxygenated and isomerised base oil product stream comprising the renewable base oil. a) providing a feedstock, the feedstock comprising 2-95 wt% of a mixture of free fatty acids; 5-98 wt% fatty acid glycerols selected from mono-glycerides, di-glycerides and tri-glycerides of fatty acids; 0-50 wt%, preferably at least 10 wt%, of one or more compounds selected from the list consisting of: fatty acid esters of the non-glycerol type, fatty amides and fatty alcohols; wherein at least 50 wt% of the feedstock being the mixture of free fatty acids and fatty acid glycerols; b) subjecting all or part of the feedstock to ketonisation reaction conditions in the presence of a ketonisation catalyst selected as a metal oxide catalyst essentially comprising titanium as the metal, wherein the content of the element potassium is 0.05 wt% or less; and wherein two free fatty acids react to yield a ketone stream, the ketone stream comprising as the major part saturated ketones; and c) subjecting the ketone stream to both hydrodeoxygenation reaction conditions and to hydroisomerisation reaction conditions, simultaneously or in sequence, to yield a deoxygenated and isomerised base oil product stream comprising the renewable base oil.
A computer-implemented method for providing setpoint values for a feed rate for adaptive feed control on numerically controlled machine tools, the method comprising: upon machining a workpiece with a tool, - receiving a real-time data associated with a current state of at least one controlled axis (X, Y, Z), wherein the real-time data comprises measured values of a torque of a spindle, - determining actual values of at least one cutting force of the tool from the torque of the spindle, - receiving a look-ahead data associated with a predicted state of the at least one controlled axis (X, Y, Z), - simulating the machining of the workpiece based on the real-time data and on the look-ahead data, wherein simulated values of the at least one cutting force of the tool are generated, the simulated values comprising values of the at least one cutting force of the tool predicted in time increments, which are sufficient to adjust the feed rate before a force spike occurs, - determining at least one setpoint value for the feed rate of the at least one controlled axis (X, Y, Z) based on the simulated values and on the actual values of the at least one cutting force of the tool, - providing the at least one setpoint value for the feed rate of the at least one controlled axis (X, Y, Z). - receiving a real-time data associated with a current state of at least one controlled axis (X, Y, Z), wherein the real-time data comprises measured values of a torque of a spindle, - determining actual values of at least one cutting force of the tool from the torque of the spindle, - receiving a look-ahead data associated with a predicted state of the at least one controlled axis (X, Y, Z), - simulating the machining of the workpiece based on the real-time data and on the look-ahead data, wherein simulated values of the at least one cutting force of the tool are generated, the simulated values comprising values of the at least one cutting force of the tool predicted in time increments, which are sufficient to adjust the feed rate before a force spike occurs, - determining at least one setpoint value for the feed rate of the at least one controlled axis (X, Y, Z) based on the simulated values and on the actual values of the at least one cutting force of the tool, - providing the at least one setpoint value for the feed rate of the at least one controlled axis (X, Y, Z).
A gripping device for attachment to a machine, the gripping device comprising: a mounting structure; a tool housing attached to the mounting structure, the tool housing having two or more tool attachment portions; at least one first tool portion is pivotally supported on each of the tool attachment portions at a first pivot point; at least one second tool portion pivotally supported on the first tool portion; and an actuation member; characterised in that the actuation member is disposed between the mounting structure and the first tool portion and configured to pivot the first tool portion about the first pivot point; and a push rod disposed between the second tool portion and the tool attachment portion and configured to be selectively locked at one of the first pivot point and a second pivot point on the tool attachment portion to selectively restrict a pivotal movement of the second tool portion with respect to the first tool portion. a mounting structure; a tool housing attached to the mounting structure, the tool housing having two or more tool attachment portions; at least one first tool portion is pivotally supported on each of the tool attachment portions at a first pivot point; at least one second tool portion pivotally supported on the first tool portion; and an actuation member; characterised in that the actuation member is disposed between the mounting structure and the first tool portion and configured to pivot the first tool portion about the first pivot point; and a push rod disposed between the second tool portion and the tool attachment portion and configured to be selectively locked at one of the first pivot point and a second pivot point on the tool attachment portion to selectively restrict a pivotal movement of the second tool portion with respect to the first tool portion.
An electrode assembly comprising a positive electrode having a positive electrode coating portion on at least one surface thereof, a negative electrode having a negative electrode coating portion including lithium titanium oxide on at least one surface thereof, and a separator disposed between the positive electrode and the negative electrode, wherein the area of the positive electrode coating portion is larger than the area of the negative electrode coating portion, and characterised in that the capacity ratio of the negative electrode coating portion to the positive electrode coating portion is in a range from 1.0 to 1.5.
A method for the electrochemical reduction of carbon dioxide, comprising: introducing an anolyte to a first compartment of an electrochemical cell, the first compartment including an anode; introducing a catholyte and carbon dioxide to a second compartment of the electrochemical cell; oxidizing an indium cathode to produce an oxidized indium cathode; wherein oxidizing the indium cathode includes: introducing the indium cathode to a hydroxide solution; and electrochemically oxidizing the indium cathode to produce the oxidized indium cathode; introducing the oxidized indium cathode to the second compartment; and applying an electrical potential between the anode and the oxidized indium cathode sufficient for the oxidized indium cathode to reduce the carbon dioxide to a reduced product. introducing an anolyte to a first compartment of an electrochemical cell, the first compartment including an anode; introducing a catholyte and carbon dioxide to a second compartment of the electrochemical cell; oxidizing an indium cathode to produce an oxidized indium cathode; wherein oxidizing the indium cathode includes: introducing the indium cathode to a hydroxide solution; and electrochemically oxidizing the indium cathode to produce the oxidized indium cathode; introducing the indium cathode to a hydroxide solution; and electrochemically oxidizing the indium cathode to produce the oxidized indium cathode; introducing the oxidized indium cathode to the second compartment; and applying an electrical potential between the anode and the oxidized indium cathode sufficient for the oxidized indium cathode to reduce the carbon dioxide to a reduced product.
An antibody that specifically binds to an epitope within or adjacent to the catalytic cleft of fPSA for use in in vivo monitoring of in situ responses to prostate cancer treatment or therapy, the use comprising: administering the antibody that binds to an epitope within or adjacent to the catalytic cleft of fPSA to a subject; determining a pretreatment level of expression or activity of tumor-associated or intratumoral fPSA in the subject; administering a prostate cancer treatment or therapy to the subject; readministering the antibody to the subject; determining a post-treatment level of expression or activity of tumor-associated or intratumoral fPSA in the subject; comparing the post-treatment level of expression or activity of tumor-associated or intratumoral fPSA with the pretreatment level; and based on the comparing, determining whether the therapy or treatment is effective as demonstrated by a decrease of in situ tumor-associated or intratumoral fPSA activity or expression. administering the antibody that binds to an epitope within or adjacent to the catalytic cleft of fPSA to a subject; determining a pretreatment level of expression or activity of tumor-associated or intratumoral fPSA in the subject; administering a prostate cancer treatment or therapy to the subject; readministering the antibody to the subject; determining a post-treatment level of expression or activity of tumor-associated or intratumoral fPSA in the subject; comparing the post-treatment level of expression or activity of tumor-associated or intratumoral fPSA with the pretreatment level; and based on the comparing, determining whether the therapy or treatment is effective as demonstrated by a decrease of in situ tumor-associated or intratumoral fPSA activity or expression.
An apparatus for framing data comprising: at least one component configured to encapsulate a data stream into at least one Gigabit Passive Optical Network, GPON, Encapsulation Method, GEM, frame, the GEM frame comprising a header aligned with a word boundary at least about four bytes long; encapsulate the GEM frame into a GPON Transmission Convergence, GTC, frame, the GTC frame comprising network control and management information aligned with the word boundary; and transmit the GTC frame. at least one component configured to encapsulate a data stream into at least one Gigabit Passive Optical Network, GPON, Encapsulation Method, GEM, frame, the GEM frame comprising a header aligned with a word boundary at least about four bytes long; encapsulate the GEM frame into a GPON Transmission Convergence, GTC, frame, the GTC frame comprising network control and management information aligned with the word boundary; and transmit the GTC frame.
Built-in refrigeration appliance, in particular built-in household refrigeration appliance with a carcass and a door leaf (5a, 5b, 5c), having a coupling facility, which is able to be connected to a front panel (8a, 8b, 8c) which veneers the door leaf (5a, 5b, 5c), meaning that when the front panel (8a, 8b, 8c) is actuated the door leaf (5a, 5b, 5c) is to be moved, and having a door lock, with a bolt and a latch, by way of which in its unlocking position the door leaf (5a, 5b, 5c) is released to open and by way of which in its locking position the door leaf (5a, 5b, 5c) is locked in its closed position, wherein the latch is connected to the carcass, characterised in that the bolt has a fitting with a rotatable actuation member for mounting it on the front panel (8a, 8b, 8c).
A method of sample preparation comprising the steps of: providing a solid phase support comprising a dried sample; providing said solid phase support at a first location between an upper plate and a lower plate of a two-plate digital microfluidic device comprising an array of digital microfluidic elements that can be electrically actuated, wherein said first location is dropwise addressable under actuation of said digital microfluidic device; providing an extraction solvent at an additional location that is dropwise addressable under actuation of said digital microfluidic device; actuating said digital microfluidic device to transport a droplet of said extraction solvent to said first location; and incubating said droplet of said extraction solvent and extracting an analyte in said dried sample, wherein a lateral extent of said solid phase support is selected to be sufficiently small to allow actuation of a droplet from a location where said droplet is contacting said solid phase support to another location addressable by said digital microfluidic device. providing a solid phase support comprising a dried sample; providing said solid phase support at a first location between an upper plate and a lower plate of a two-plate digital microfluidic device comprising an array of digital microfluidic elements that can be electrically actuated, wherein said first location is dropwise addressable under actuation of said digital microfluidic device; providing an extraction solvent at an additional location that is dropwise addressable under actuation of said digital microfluidic device; actuating said digital microfluidic device to transport a droplet of said extraction solvent to said first location; and incubating said droplet of said extraction solvent and extracting an analyte in said dried sample, wherein a lateral extent of said solid phase support is selected to be sufficiently small to allow actuation of a droplet from a location where said droplet is contacting said solid phase support to another location addressable by said digital microfluidic device.
A method for the preparation of aluminum hydroxyphosphate adjuvant comprising the steps of: (a) co-mixing a solution of an aluminum salt with a solution of a phosphate at a defined P/Al molar ratio and in the presence of a buffer that maintains a constant pH, wherein said co-mixing involves the simultaneous and continuous combining of the solution of the aluminum salt and the solution of the phosphate at a constant reactant ratio; wherein the defined P/Al ratio is in the range of 2.0-3.5; wherein the solution of phosphate has a pH from 7.4 to 12.4, 8.0 to 10.0, or 8.5 to 9.5; and wherein the buffer is the same as the solution of phosphate; and (b) buffer exchanging with a buffer exchange solution to remove at least 80% of any excess phosphate, buffer or other residual salts from the original reactants; (a) co-mixing a solution of an aluminum salt with a solution of a phosphate at a defined P/Al molar ratio and in the presence of a buffer that maintains a constant pH, wherein said co-mixing involves the simultaneous and continuous combining of the solution of the aluminum salt and the solution of the phosphate at a constant reactant ratio; wherein the defined P/Al ratio is in the range of 2.0-3.5; wherein the solution of phosphate has a pH from 7.4 to 12.4, 8.0 to 10.0, or 8.5 to 9.5; and wherein the buffer is the same as the solution of phosphate; and (b) buffer exchanging with a buffer exchange solution to remove at least 80% of any excess phosphate, buffer or other residual salts from the original reactants;
A method for avoiding double bookkeeping in a wireless communication network, comprising: Detecting a failure event by a user equipment, named UE in the following, in a first cell served by a first base station; Performing a radio resource control, named RRC in the following, establishment procedure with a second cell served by a second base station; and characterized by Transmitting a failure event report corresponding to the detected failure event to the second base station after the RRC establishment, wherein the UE also transmits correlation information, and wherein the correlation information refers to an earlier connection or connection attempt associated with the failure event. Detecting a failure event by a user equipment, named UE in the following, in a first cell served by a first base station; Performing a radio resource control, named RRC in the following, establishment procedure with a second cell served by a second base station; and characterized by Transmitting a failure event report corresponding to the detected failure event to the second base station after the RRC establishment, wherein the UE also transmits correlation information, and wherein the correlation information refers to an earlier connection or connection attempt associated with the failure event.
An image processing apparatus comprising: a direction detection section that comprises a head direction detection section and an eye direction detection section, the head direction detection section being adapted to detect, from a predetermined image including a person image, a direction of a head of a person represented by the person image, and the eye direction detection section being adapted to detect, from the predetermined image including a person image, a direction of an eyeball of a person represented by the person image; characterized in that it further comprises a displacement detection section that is adapted to calculate a displacement ratio that is a ratio between an angle indicating the direction of a head and an angle indicating the direction of an eyeball; and an attention state determination section that is adapted to perform determination of an attention level of a person toward a predetermined object based on a first displacement ratio calculated by the displacement detection section using a first direction of a head of a person and a first direction of an eyeball of a person detected by the direction detection section from a first predetermined image including a first person image, and a second displacement ratio calculated by the displacement detection section using a second direction of a head of a person and a second direction of an eyeball of a person detected by the direction detection section from a second predetermined image including the first person image. a direction detection section that comprises a head direction detection section and an eye direction detection section, the head direction detection section being adapted to detect, from a predetermined image including a person image, a direction of a head of a person represented by the person image, and the eye direction detection section being adapted to detect, from the predetermined image including a person image, a direction of an eyeball of a person represented by the person image; characterized in that it further comprises a displacement detection section that is adapted to calculate a displacement ratio that is a ratio between an angle indicating the direction of a head and an angle indicating the direction of an eyeball; and an attention state determination section that is adapted to perform determination of an attention level of a person toward a predetermined object based on a first displacement ratio calculated by the displacement detection section using a first direction of a head of a person and a first direction of an eyeball of a person detected by the direction detection section from a first predetermined image including a first person image, and a second displacement ratio calculated by the displacement detection section using a second direction of a head of a person and a second direction of an eyeball of a person detected by the direction detection section from a second predetermined image including the first person image.