mhurhangee/patent-ind-claim-en huggingface dataset:
A CT spectral scanner projection domain de-noising method, comprising: receiving at least two sets of noisy basis material line integrals, each set corresponding to a different basis material; and filtering the at least two sets of noisy basis material line integrals with an anti-correlation filter that at least includes a regularization term with regularization factors, which are balanced by means of scaling factors, for each different basis material, thereby producing de-noised basis material line integrals, wherein (i) a ratio of a scaling factor of a regularization factor for a first basis material to a scaling factor of a regularization factor for a second basis material equals a predetermined constant value, or wherein (ii) a scaling factor of a regularization factor for a first basis material is determined as a square root of a product of a second set of the noisy basis material line integrals for a second basis material and a standard deviation of the second set of noisy basis material line integrals and a scaling factor of a regularization factor for the second basis material is determined as a square root of a product of a first set of the noisy basis material line integrals for the first basis material and a standard deviation of the first set of noisy basis material line integrals. receiving at least two sets of noisy basis material line integrals, each set corresponding to a different basis material; and filtering the at least two sets of noisy basis material line integrals with an anti-correlation filter that at least includes a regularization term with regularization factors, which are balanced by means of scaling factors, for each different basis material, thereby producing de-noised basis material line integrals, wherein (i) a ratio of a scaling factor of a regularization factor for a first basis material to a scaling factor of a regularization factor for a second basis material equals a predetermined constant value, or wherein (ii) a scaling factor of a regularization factor for a first basis material is determined as a square root of a product of a second set of the noisy basis material line integrals for a second basis material and a standard deviation of the second set of noisy basis material line integrals and a scaling factor of a regularization factor for the second basis material is determined as a square root of a product of a first set of the noisy basis material line integrals for the first basis material and a standard deviation of the first set of noisy basis material line integrals.
Phosphate glass comprising, in terms of mole percentage based on oxides: 55 to 65 [mol%] of P 2 O 5 ; 10 to 27 [mol%] of ZnO; 0.5 to 7 [mol%] of R 2 O 3 being at least one of Al 2 O 3 , Ga 2 O 3 , or Y 2 O 3 ; 0.5 to 3.5 [mol%] of a lanthanoid oxide L 2 O 3 being at least one of La 2 O 3 , Ce 2 O 3 , Pr 2 O 3 , Nd 2 O 3 , Pm 2 O 3 , Sm 2 O 3 , Lu 2 O 3 , Gd 2 O 3 , Tb 2 O 3 , Dy 2 O 3 , Ho 2 O 3 , Er 2 O 3 , Tm 2 O 3 , Yb 2 O 3 , or Lu 2 O 3 ; and 4 to 15 [mol%] of X 2 O being at least one of Li 2 O, Na 2 O, K 2 O, Rb 2 O, Cs 2 O, or Fr 2 O, the phosphate glass having a glass transition temperature of lower than 400°C. 55 to 65 [mol%] of P 2 O 5 ; 10 to 27 [mol%] of ZnO; 0.5 to 7 [mol%] of R 2 O 3 being at least one of Al 2 O 3 , Ga 2 O 3 , or Y 2 O 3 ; 0.5 to 3.5 [mol%] of a lanthanoid oxide L 2 O 3 being at least one of La 2 O 3 , Ce 2 O 3 , Pr 2 O 3 , Nd 2 O 3 , Pm 2 O 3 , Sm 2 O 3 , Lu 2 O 3 , Gd 2 O 3 , Tb 2 O 3 , Dy 2 O 3 , Ho 2 O 3 , Er 2 O 3 , Tm 2 O 3 , Yb 2 O 3 , or Lu 2 O 3 ; and 4 to 15 [mol%] of X 2 O being at least one of Li 2 O, Na 2 O, K 2 O, Rb 2 O, Cs 2 O, or Fr 2 O, the phosphate glass having a glass transition temperature of lower than 400°C.
Elevator system, comprising: a driving member ; a hoisting means , which engages with the aforementioned driving member by frictional traction; wherein the elevator system comprises traction determination means for determining the traction of the driving member ; and a control circuit , which is configured to start a procedure ensuring the safety of the elevator system after the traction determination means have detected that the traction of the driving member has weakened, whereby the elevator system comprises a control unit ; characterized in that the aforementioned control unit is configured to start a testing run for testing the traction of the driving member ; and in that the traction determination means are configured to determine the traction of the driving member in connection with the testing run, and that the elevator car is configured for moving at an increased acceleration and/or deceleration in connection with a testing run. a driving member ; a hoisting means , which engages with the aforementioned driving member by frictional traction; wherein the elevator system comprises traction determination means for determining the traction of the driving member ; and a control circuit , which is configured to start a procedure ensuring the safety of the elevator system after the traction determination means have detected that the traction of the driving member has weakened, whereby the elevator system comprises a control unit ; characterized in that the aforementioned control unit is configured to start a testing run for testing the traction of the driving member ; and in that the traction determination means are configured to determine the traction of the driving member in connection with the testing run, and that the elevator car is configured for moving at an increased acceleration and/or deceleration in connection with a testing run.
A hearing device, comprising an earpiece, the hearing device comprising an electroacoustic transducer in acoustic communication with an ear canal volume , the electroacoustic transducer being capable of transforming an electrical signal between terminals into an acoustic signal, the hearing device being equipped to process a hearing device input into a wanted signal being an electrical signal that represents the acoustic signal the user of the hearing device should hear, to use the wanted signal to obtain a transducer input signal, and to apply the transducer input signal to the terminals of the electroacoustic transducer , characterized in that the hearing device is equipped to measure a physical signal at the terminals , in that the hearing device is equipped to determine, from the measured physical signal, a transfer signal, wherein determining the transfer signal comprises applying an admittance transfer function or an impedance transfer function to a quantity derived from the measured physical signal and wherein the hearing device is further equipped to use the measured physical signal as an input quantity for obtaining the transducer input signal by adding the transfer signal to the wanted signal to obtain the transducer input signal.
A method for processing a chemical liquid comprising an organic solvent, comprising: providing a purification system comprising at least one filtration medium , selected from a particle removal filter, an ion exchange membrane, and an ion adsorption membrane; preforming a soaking process by placing the at least one filtration medium in a container and soaking the at least one filtration medium in a liquid stored in the container for at least a soaking period of 12 to 18 hours, wherein there are three to five soaking periods; after the soaking process, performing a treatment process on the purification system by passing a treatment liquid through the at least one filtration medium of the purification system , wherein a total content of iron (Fe) and calcium (Ca) in the treatment liquid is 0 ppb or more and 10 ppb or less, the liquid used in the soaking process is the same as the treatment liquid , and the treatment liquid is the same as at least one of organic solvents contained in the chemical liquid to be processed; and subsequent to the treatment process, processing the chemical liquid with the purification system configured in a chemical liquid manufacturing apparatus , wherein the chemical liquid manufacturing apparatus comprises the purification system , and a processed chemical liquid is obtained by introducing the chemical liquid into the chemical liquid manufacturing apparatus and passing the chemical liquid through the purification system . providing a purification system comprising at least one filtration medium , selected from a particle removal filter, an ion exchange membrane, and an ion adsorption membrane; preforming a soaking process by placing the at least one filtration medium in a container and soaking the at least one filtration medium in a liquid stored in the container for at least a soaking period of 12 to 18 hours, wherein there are three to five soaking periods; after the soaking process, performing a treatment process on the purification system by passing a treatment liquid through the at least one filtration medium of the purification system , wherein a total content of iron (Fe) and calcium (Ca) in the treatment liquid is 0 ppb or more and 10 ppb or less, the liquid used in the soaking process is the same as the treatment liquid , and the treatment liquid is the same as at least one of organic solvents contained in the chemical liquid to be processed; and subsequent to the treatment process, processing the chemical liquid with the purification system configured in a chemical liquid manufacturing apparatus , wherein the chemical liquid manufacturing apparatus comprises the purification system , and a processed chemical liquid is obtained by introducing the chemical liquid into the chemical liquid manufacturing apparatus and passing the chemical liquid through the purification system .
A composition for use in tumor treatments, acquired immunodeficiency syndrome treatments and leukemia treatments, said composition comprising a mixture consisting of: - a strain of bacteria belonging to the species Lactobacillus reuteri identified as Lactobacillus reuteri LRE03 with deposit number DSM 23879, deposited on 05.08.2010 by Probiotical SpA at DSMZ - Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH, and - a strain of bacteria belonging to the species Lactobacillus salivarius identified as Lactobacillus salivarius LS06 with deposit number DSM 26037, deposited on 06.06.2012 by Probiotical SpA at DSMZ -Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH. - a strain of bacteria belonging to the species Lactobacillus reuteri identified as Lactobacillus reuteri LRE03 with deposit number DSM 23879, deposited on 05.08.2010 by Probiotical SpA at DSMZ - Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH, and - a strain of bacteria belonging to the species Lactobacillus salivarius identified as Lactobacillus salivarius LS06 with deposit number DSM 26037, deposited on 06.06.2012 by Probiotical SpA at DSMZ -Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH.
Pest protective apparatus , for controlling plant pathogens, comprising at least one fibrous network and/or at least one fibrous cover comprising a system , wherein said system is composed of fibres which are coated with a preparation , said preparation comprising at least one active enzyme which is selected from the group of glycosidase, carbon-sulfur lyases and/or lachrymatory-factor synthase, said enzyme is capable to transform at least one biopesticide and/or repellent precursor into a biopesticide and/or repellent product ; said apparatus further comprising means for distributing water to the at least one fibrous network and/or at least one fibrous cover , wherein either the at least one precursor is incorporated to the preparation or wherein said means are comprising a cartridge configured for being in fluid connection with said at least one fibrous network and/or at least one fibrous cover and for being fed with water, said cartridge is comprising said at least one precursor which is transformed into said product into said system of said at least one fibrous network and/or at least one fibrous cover .
A system comprising: a memory device; and a processing device, operatively coupled with the memory device, configured to: identify a first bit stored at a first page of the plurality of pages of a multi-level memory cell and a second bit stored at a second page of the plurality of pages of the multi-level memory cell; determine a first error rate associated with the first bit stored at the first page of the plurality of pages of the multi-level memory cell; adjust, by adjustment to at least one program verify voltage associated with the multi-level memory cell, the first error rate to exceed a second error rate associated with the second bit stored at the second page of the plurality of pages of the multi-level memory cell; determine whether the first error rate exceeds a threshold; and in response to determining that the first error rate exceeds the threshold, designate the second bit stored at the second page of the plurality of pages of the multi-level memory cell to perform an error correction operation. a memory device; and a processing device, operatively coupled with the memory device, configured to: identify a first bit stored at a first page of the plurality of pages of a multi-level memory cell and a second bit stored at a second page of the plurality of pages of the multi-level memory cell; determine a first error rate associated with the first bit stored at the first page of the plurality of pages of the multi-level memory cell; adjust, by adjustment to at least one program verify voltage associated with the multi-level memory cell, the first error rate to exceed a second error rate associated with the second bit stored at the second page of the plurality of pages of the multi-level memory cell; determine whether the first error rate exceeds a threshold; and in response to determining that the first error rate exceeds the threshold, designate the second bit stored at the second page of the plurality of pages of the multi-level memory cell to perform an error correction operation. identify a first bit stored at a first page of the plurality of pages of a multi-level memory cell and a second bit stored at a second page of the plurality of pages of the multi-level memory cell; determine a first error rate associated with the first bit stored at the first page of the plurality of pages of the multi-level memory cell; adjust, by adjustment to at least one program verify voltage associated with the multi-level memory cell, the first error rate to exceed a second error rate associated with the second bit stored at the second page of the plurality of pages of the multi-level memory cell; determine whether the first error rate exceeds a threshold; and in response to determining that the first error rate exceeds the threshold, designate the second bit stored at the second page of the plurality of pages of the multi-level memory cell to perform an error correction operation.
A laundry treatment apparatus comprising: a cabinet ; a drawer configured to be extracted from and retracted into the cabinet , and having an upper surface provided with a water supply opening ; an accommodation unit (4-5) provided in the drawer , and defining a space configured to receive water; a guider comprising: a first body rotatably coupled to the cabinet , and a second body rotatably coupled to the first body and the upper surface of the drawer ; and a water supply line configured to connect the water supply opening and a water supply source, wherein the water supply line comprises a water supply channel provided in the guider . a cabinet ; a drawer configured to be extracted from and retracted into the cabinet , and having an upper surface provided with a water supply opening ; an accommodation unit (4-5) provided in the drawer , and defining a space configured to receive water; a guider comprising: a first body rotatably coupled to the cabinet , and a second body rotatably coupled to the first body and the upper surface of the drawer ; and a first body rotatably coupled to the cabinet , and a second body rotatably coupled to the first body and the upper surface of the drawer ; and a water supply line configured to connect the water supply opening and a water supply source, wherein the water supply line comprises a water supply channel provided in the guider .
A method for use in providing reverse time alignment in a consolidated multi-point, CoMP, transmission network, comprising: obtaining , at a user equipment, UE , a first timing value from a serving node and a second timing value from a non-serving node of the UE , wherein the non-serving node operates in an unlicensed or shared spectrum; computing , at the UE , a difference in timing between the first timing value and the second timing value; reporting , by the UE , the difference in timing to the serving node ; reporting, by the UE , additional information to the serving node to assist the serving node in estimating propagation delays of the serving node and/or the non-serving node ; obtaining , at the UE , an adjusted difference in timing from the serving node , wherein the adjusted difference in timing is based on the estimated propagation delays associated with the serving node and the non-serving node ; and synchronizing timing at the UE to the adjusted difference in timing received from the serving node . obtaining , at a user equipment, UE , a first timing value from a serving node and a second timing value from a non-serving node of the UE , wherein the non-serving node operates in an unlicensed or shared spectrum; computing , at the UE , a difference in timing between the first timing value and the second timing value; reporting , by the UE , the difference in timing to the serving node ; reporting, by the UE , additional information to the serving node to assist the serving node in estimating propagation delays of the serving node and/or the non-serving node ; obtaining , at the UE , an adjusted difference in timing from the serving node , wherein the adjusted difference in timing is based on the estimated propagation delays associated with the serving node and the non-serving node ; and synchronizing timing at the UE to the adjusted difference in timing received from the serving node .
A dual-function roof window, arranged to be opened by a pivoting function, that is by rotation of the sash around a horizontal axis located slightly above half the height of the window, and arranged to be opened by a tilting function by rotating the sash around a horizontal axis located at the top of the window, comprising: - a window frame and a window sash, - two symmetrically arranged intermediate arm assemblies located on the right and left side of the window, - a tilting hinge , and a pivoting hinge arranged on each side of the window, wherein - each intermediate arm assembly comprises a fixed fitting and an intermediate arm connected in its upper part by the tilting hinge to the fixed fitting attached to the window frame and in its lower part connected by the pivoting hinge to the window sash, characterized in that each intermediate arm comprises at least two sections , from which one is a channel section , said channel section comprising a bottom shelf and an upper shelf of various widths, as well the other section comprising bottom shelf and an upper shelf , wherein the bottom shelves of said two sections are arranged to face each other and between the ends of the bottom shelf of the channel section and the bottom shelf of the other section , a slot is located where said slot is arranged to extend over the entire length of the intermediate arm and wherein the upper shelves of said two sections are adjacent to each other and are inseparably connected such that they jointly form a box-type intermediate arm. - a window frame and a window sash, - two symmetrically arranged intermediate arm assemblies located on the right and left side of the window, - a tilting hinge , and a pivoting hinge arranged on each side of the window, wherein - each intermediate arm assembly comprises a fixed fitting and an intermediate arm connected in its upper part by the tilting hinge to the fixed fitting attached to the window frame and in its lower part connected by the pivoting hinge to the window sash,
A method (400; 500) of correcting a digital seismic image, the method comprising: receiving (405; 525) distributed acoustic sensing data of responses associated with seismic excitations in an area of interest, wherein the area of interest includes a sea surface, a water column under the sea surface, a seafloor under the water column, and a subseafloor under the seafloor, wherein the seismic excitations are generated by at least one seismic source in the area of interest, and wherein said responses are detected by at least one fiber optic sensing apparatus configured for distributed acoustic sensing that is at least in the water column; determining (410; 530) a function of speed of sound in water using the distributed acoustic sensing data; and correcting (415; 535) a digital seismic image associated with the area of interest using the function of speed of sound in water to generate a corrected digital seismic image, wherein determining the function of speed of sound in water includes deriving a Vw(z) function, a Vw(z,t) function, a Vw(x,y,z,t) function, or any combination thereof, wherein (x,y,z) are three-dimensional space variables, (t) is a time variable, and Vw represents speed of sound in water. receiving (405; 525) distributed acoustic sensing data of responses associated with seismic excitations in an area of interest, wherein the area of interest includes a sea surface, a water column under the sea surface, a seafloor under the water column, and a subseafloor under the seafloor, wherein the seismic excitations are generated by at least one seismic source in the area of interest, and wherein said responses are detected by at least one fiber optic sensing apparatus configured for distributed acoustic sensing that is at least in the water column; determining (410; 530) a function of speed of sound in water using the distributed acoustic sensing data; and correcting (415; 535) a digital seismic image associated with the area of interest using the function of speed of sound in water to generate a corrected digital seismic image, wherein determining the function of speed of sound in water includes deriving a Vw(z) function, a Vw(z,t) function, a Vw(x,y,z,t) function, or any combination thereof, wherein (x,y,z) are three-dimensional space variables, (t) is a time variable, and Vw represents speed of sound in water.
A cutter unit for a rotary tiller machine comprising a coupling flange connected or connectable to a rotor of the tiller machine, a first blade and a second blade , said first and second blades comprising a respective working portion and a respective coupling portion , said cutter unit further comprising a housing seat for said blades , which extends in a radial direction on said coupling flange and towards the outside of the same, wherein the coupling portion of the first blade comprises an opening capable of accommodating a locking element for the locking of said first blade with respect to said coupling flange at least in a direction of extraction (W) of said blades from said housing seat , said direction of extraction (W) corresponding essentially to a radial direction, said blades comprising a respective shaped portion , wherein the shaped portion of said first blade is defined by a lateral extension and the shaped portion of said second blade defines a cutaway area within which said extension engages, characterized in that said locking element comprises a screw , or a pin provided with a plug, insertable, as well as into the opening , into a hole created on said coupling flange .