mhurhangee/patent-ind-claim-en huggingface dataset:
A method of bite registration, wherein the method comprises the steps of: a. generating (S110) 3-dimensional teeth models of the upper jaw and the lower jaw, respectively, by a scanner ; b. acquiring (S120) a 3D bite surface containing a portion of the upper jaw and a portion of the lower jaw simultaneously in a clenched state, where the upper jaw is static in relation to the lower jaw, by the scanner ; c. attempting to align (S130) the 3D teeth models of the upper jaw and the lower jaw with the 3D bite surface according to an alignment computer program; d. displaying (S150) the 3D bite surface together with the 3D teeth models of the upper jaw and the lower jaw aligned with the 3D bite surface if alignment is successful using a monitor ; e. repeating step b to step d (S160) so as to obtain at least another successful bite registration corresponding to different displayed 3D bite surfaces; f. selecting two or more successful bite registrations (S170) by evaluating the at least two successful bite registrations and selecting said two or more of the displayed successful bite registrations; and g. computing a final bite registration (S180) between the 3D teeth models of the upper jaw and the lower jaw using the selected two or more successful bite registrations, and wherein in step e., when repeating to perform step b., the location of the acquired 3D bite surface is changed. a. generating (S110) 3-dimensional teeth models of the upper jaw and the lower jaw, respectively, by a scanner ; b. acquiring (S120) a 3D bite surface containing a portion of the upper jaw and a portion of the lower jaw simultaneously in a clenched state, where the upper jaw is static in relation to the lower jaw, by the scanner ; c. attempting to align (S130) the 3D teeth models of the upper jaw and the lower jaw with the 3D bite surface according to an alignment computer program; d. displaying (S150) the 3D bite surface together with the 3D teeth models of the upper jaw and the lower jaw aligned with the 3D bite surface if alignment is successful using a monitor ; e. repeating step b to step d (S160) so as to obtain at least another successful bite registration corresponding to different displayed 3D bite surfaces; f. selecting two or more successful bite registrations (S170) by evaluating the at least two successful bite registrations and selecting said two or more of the displayed successful bite registrations; and g. computing a final bite registration (S180) between the 3D teeth models of the upper jaw and the lower jaw using the selected two or more successful bite registrations, and wherein in step e., when repeating to perform step b., the location of the acquired 3D bite surface is changed.
A microfibrillated cellulose-containing composition comprising: a phenol resin ; microfibrillated cellulose ; at least one of water or a water-soluble organic solvent; and carboxymethyl cellulose, wherein a content of the carboxymethyl cellulose in the microfibrillated cellulose-containing composition is 0.05 to 5% by weight. a phenol resin ; microfibrillated cellulose ; at least one of water or a water-soluble organic solvent; and carboxymethyl cellulose, wherein a content of the carboxymethyl cellulose in the microfibrillated cellulose-containing composition is 0.05 to 5% by weight.
A method comprising: identifying that a removable memory card is inserted into a predetermined slot of an electronic device; detecting , upon insertion of the memory card into the electronic device, whether a backup boot record is stored in the boot record area of the internal storage; and determining if a fast mode is selected; wherein if the fast mode is selected the method further comprises: copying a backup boot record of a boot record area and a file allocation table of a file allocation table area in the memory card to a boot record area and a file allocation table area located in an internal storage located in the electronic device; generating a virtual block device that comprises the file allocation table area , the backup boot record, and a cluster heap area , wherein the file allocation table area is synchronized with the file allocation table area located in the internal storage of the electronic device, and the cluster heap area is synchronized with the cluster heap area in the memory card; and mounting a file system of the memory card using the generated virtual block device; wherein the fast mode is a mode for executing the file system of the memory card using the generated virtual block device. identifying that a removable memory card is inserted into a predetermined slot of an electronic device; detecting , upon insertion of the memory card into the electronic device, whether a backup boot record is stored in the boot record area of the internal storage; and determining if a fast mode is selected; wherein if the fast mode is selected the method further comprises: copying a backup boot record of a boot record area and a file allocation table of a file allocation table area in the memory card to a boot record area and a file allocation table area located in an internal storage located in the electronic device; generating a virtual block device that comprises the file allocation table area , the backup boot record, and a cluster heap area , wherein the file allocation table area is synchronized with the file allocation table area located in the internal storage of the electronic device, and the cluster heap area is synchronized with the cluster heap area in the memory card; and mounting a file system of the memory card using the generated virtual block device; copying a backup boot record of a boot record area and a file allocation table of a file allocation table area in the memory card to a boot record area and a file allocation table area located in an internal storage located in the electronic device; generating a virtual block device that comprises the file allocation table area , the backup boot record, and a cluster heap area , wherein the file allocation table area is synchronized with the file allocation table area located in the internal storage of the electronic device, and the cluster heap area is synchronized with the cluster heap area in the memory card; and mounting a file system of the memory card using the generated virtual block device; wherein the fast mode is a mode for executing the file system of the memory card using the generated virtual block device.
Method for authorizing an action on a self-service system, in which a user is authorized, by using an authorization server , to carry out an action on a self-service system , wherein the user is equipped with a token for his/her identification, characterized in that the method comprises the following steps: - generation of a first message by the self-service system when the user has identified himself/herself to the self-service system by means of the token , and storage of the first message on the token , wherein the first message contains data for identifying the user and the self-service system , the generation of the first message by the self-service system comprising the steps of: inserting the token into a token reader of the self-service system , reading identification data of the token via a first interface of the token , and transmitting the first message from the self-service system to the token via the first interface , - transmission of the first message from the token via a second interface to a further device , which transmits the first message to the authorization server , - checking at the authorization server , taking the first message into consideration, whether the action by the user on the self-service system is permitted to be carried out, - generation of a second message at the authorization server and transmission of the second message from the authorization server to the token , wherein the second message contains data about whether the action by the user on the self-service system is permitted to be carried out, - reading of the second message by the self-service system and allowing of the action by the self-service system if the second message contains a corresponding authorization. - generation of a first message by the self-service system when the user has identified himself/herself to the self-service system by means of the token , and storage of the first message on the token , wherein the first message contains data for identifying the user and the self-service system , the generation of the first message by the self-service system comprising the steps of: inserting the token into a token reader of the self-service system , reading identification data of the token via a first interface of the token , and transmitting the first message from the self-service system to the token via the first interface , - transmission of the first message from the token via a second interface to a further device , which transmits the first message to the authorization server , - checking at the authorization server , taking the first message into consideration, whether the action by the user on the self-service system is permitted to be carried out, - generation of a second message at the authorization server and transmission of the second message from the authorization server to the token , wherein the second message contains data about whether the action by the user on the self-service system is permitted to be carried out, - reading of the second message by the self-service system and allowing of the action by the self-service system if the second message contains a corresponding authorization.
Method of imaging a substrate wherein an image is generated on the surface of the substrate and the imaging operation generates at least one image area containing a bar code , wherein a first computer generates a file comprising artwork for imaging the substrate , the file is generated in a page description language PDL, preferably PDF, a first section is created within a first region of the file, said first section describing a first bar code , said region becoming unequivocally identifiable due to the use of identification elements of the PDL, having been generated, the file is saved on a storage medium or sent to a second computer as a data stream, the file is reopened by the first or second computer , the first region of the file is identified by means of the identification elements, characterized in that the first bar code is accessed and modifications are made to the information content of the first bar code , a first region modified in terms of content is generated in the file using the modified information content, and, based on this file, the substrate is imaged in an imaging device and the bar code is physically generated in the at least one image region, factoring in the modifications to the information content. wherein a first computer generates a file comprising artwork for imaging the substrate , the file is generated in a page description language PDL, preferably PDF, a first section is created within a first region of the file, said first section describing a first bar code , said region becoming unequivocally identifiable due to the use of identification elements of the PDL, having been generated, the file is saved on a storage medium or sent to a second computer as a data stream, the file is reopened by the first or second computer , the first region of the file is identified by means of the identification elements, characterized in that the first bar code is accessed and modifications are made to the information content of the first bar code , a first region modified in terms of content is generated in the file using the modified information content, and, based on this file, the substrate is imaged in an imaging device and the bar code is physically generated in the at least one image region, factoring in the modifications to the information content.
Process for producing a modified precipitated silica, wherein i) the modification is effected in the reaction mixture comprising 1. acid and 2. a compound selected from a precipitated silica and/or [SiO 4/2 ] starting materials and 3. an organosiliconate as modifying agent, wherein the modification reaction is effected during or immediately after the reaction for production of the precipitated silica, ii) the reaction mixture is then filtered and washed and iii) the reaction mixture is optionally dried in a further process step, wherein the [SiO 4/2 ] starting materials used are alkoxysilanes or alkali metal silicates. i) the modification is effected in the reaction mixture comprising 1. acid and 2. a compound selected from a precipitated silica and/or [SiO 4/2 ] starting materials and 3. an organosiliconate as modifying agent, wherein the modification reaction is effected during or immediately after the reaction for production of the precipitated silica, 1. acid and 2. a compound selected from a precipitated silica and/or [SiO 4/2 ] starting materials and 3. an organosiliconate as modifying agent, ii) the reaction mixture is then filtered and washed and iii) the reaction mixture is optionally dried in a further process step,
Manufacturing method for a pole core , comprising the following method steps: - providing a magnetic workpiece , having a first side and a second side , wherein the first side comprises a groove oriented toward the second side , - inserting at least one insertion , as well as at least one attaching agent into the groove , wherein the at least one attaching agent is arranged between the two insertions , and - integrally connecting the at least two insertions to each other and, optionally, the at least two insertions to the workpiece . - providing a magnetic workpiece , having a first side and a second side , wherein the first side comprises a groove oriented toward the second side , - inserting at least one insertion , as well as at least one attaching agent into the groove , wherein the at least one attaching agent is arranged between the two insertions , and - integrally connecting the at least two insertions to each other and, optionally, the at least two insertions to the workpiece .
A method for providing orthogonality among signals transmitted by the transmit antennas of a multiple input multiple output, MIMO, radar system, the method comprising the following steps: (a) transmitting (S5A) distinct time-coded data signals from multiple, Nt, transmit antennas of a multiple input multiple output, MIMO, radar antenna array , wherein the distinct time-coded data signals are transmitted on N t consecutive time indices and represented by ( x i , ω i -1 x i , ω 2( í- 1) x i , ..., ω ( N t -1 ) ( i- 1) x i ), wherein x i is the data transmitted by an ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 1, ω i - 1 x i is the data transmitted by the ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 2, ... , ω ( N t -1)( i- 1) x i is the data transmitted by the ith transmit antenna of the multiple, N t , transmit antennas on time index k + Nt, wherein k is an integer, i is an positive integer between 1 and N t , and ω z is the (z+1) th root of unity, z = (0, 1, ... , Nt-1); and (b) processing (S5B) signals received by multiple receive antennas of said multiple input multiple output, MIMO, radar antenna array to separate a target response from all, Nt, transmit antennas of said multiple input multiple output, MIMO, radar antenna array . (a) transmitting (S5A) distinct time-coded data signals from multiple, Nt, transmit antennas of a multiple input multiple output, MIMO, radar antenna array , wherein the distinct time-coded data signals are transmitted on N t consecutive time indices and represented by ( x i , ω i -1 x i , ω 2( í- 1) x i , ..., ω ( N t -1 ) ( i- 1) x i ), wherein x i is the data transmitted by an ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 1, ω i - 1 x i is the data transmitted by the ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 2, ... , ω ( N t -1)( i- 1) x i is the data transmitted by the ith transmit antenna of the multiple, N t , transmit antennas on time index k + Nt, wherein k is an integer, i is an positive integer between 1 and N t , and ω z is the (z+1) th root of unity, z = (0, 1, ... , Nt-1); and wherein x i is the data transmitted by an ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 1, ω i - 1 x i is the data transmitted by the ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 2, ... , ω ( N t -1)( i- 1) x i is the data transmitted by the ith transmit antenna of the multiple, N t , transmit antennas on time index k + Nt, wherein k is an integer, i is an positive integer between 1 and N t , and ω z is the (z+1) th root of unity, z = (0, 1, ... , Nt-1); and (b) processing (S5B) signals received by multiple receive antennas of said multiple input multiple output, MIMO, radar antenna array to separate a target response from all, Nt, transmit antennas of said multiple input multiple output, MIMO, radar antenna array .
An ultrasound patch configured for use on the skin of a patient to detect fluid flow in a vessel in the patient, comprising: one or more piezoelectric transmit elements ; one or more piezoelectric receive elements adjacent the one or more piezoelectric transmit elements ; a rigid housing including a top surface and a bottom surface opposite the top surface, the top surface configured to face away from the skin of the patient and the bottom surface configured to face toward the skin of the patient during use with the patient; a flexible patient pad secured to the rigid housing and including a patient contacting surface configured to conform to the patient's anatomy and a ramp that extends outwardly from the patient contacting surface and supports the one or more piezoelectric transmit and receive elements at an angle with respect to a plane of the patient contacting surface of the patient pad, such that the one or more piezoelectric transmit and receive elements are positioned to transmit and receive ultrasound in a direction toward the vessel in the patient, wherein the direction is not orthogonal to the direction of fluid flowing in a vessel of interest. one or more piezoelectric transmit elements ; one or more piezoelectric receive elements adjacent the one or more piezoelectric transmit elements ; a rigid housing including a top surface and a bottom surface opposite the top surface, the top surface configured to face away from the skin of the patient and the bottom surface configured to face toward the skin of the patient during use with the patient; a flexible patient pad secured to the rigid housing and including a patient contacting surface configured to conform to the patient's anatomy and a ramp that extends outwardly from the patient contacting surface and supports the one or more piezoelectric transmit and receive elements at an angle with respect to a plane of the patient contacting surface of the patient pad, such that the one or more piezoelectric transmit and receive elements are positioned to transmit and receive ultrasound in a direction toward the vessel in the patient, wherein the direction is not orthogonal to the direction of fluid flowing in a vessel of interest.
A compound of Formula I: wherein: R 1 is H, CH 2 NH 2 , or CH 2 NHC(O)(CH 2 ) m CO 2 H; R 2 is H, or CH 2 NHC(O)(CH 2 ) m CO 2 H; provided that either R 1 or R 2 must be H, and further provided that both R 1 and R 2 may not be H simultaneously; R 3 is H; m is 1, 2, 3, 4, or 5; and n is 1, 2, 3, 4, or 5. R 1 is H, CH 2 NH 2 , or CH 2 NHC(O)(CH 2 ) m CO 2 H; R 2 is H, or CH 2 NHC(O)(CH 2 ) m CO 2 H; provided that either R 1 or R 2 must be H, and further provided that both R 1 and R 2 may not be H simultaneously; R 3 is H; m is 1, 2, 3, 4, or 5; and n is 1, 2, 3, 4, or 5.
A method of preparing acicular metal-silica composite aerogel particles, the method comprising steps of: adding an acidic solution and a water glass solution to a reactor; forming an acicular intermediate by adding a solution including a metal salt after the addition of the water glass solution; adding a basic catalyst to the reactor including the acicular intermediate to perform a gelation reaction, and washing, performing solvent substitution, and drying after step , wherein concentrations of the acidic solution and the solution including a metal salt are in a range of 1.0 M to 3.0 M, and a concentration of the water glass solution is in a range of 0.33 M to 1.0 M. adding an acidic solution and a water glass solution to a reactor; forming an acicular intermediate by adding a solution including a metal salt after the addition of the water glass solution; adding a basic catalyst to the reactor including the acicular intermediate to perform a gelation reaction, and washing, performing solvent substitution, and drying after step , wherein concentrations of the acidic solution and the solution including a metal salt are in a range of 1.0 M to 3.0 M, and a concentration of the water glass solution is in a range of 0.33 M to 1.0 M. washing, performing solvent substitution, and drying after step , wherein concentrations of the acidic solution and the solution including a metal salt are in a range of 1.0 M to 3.0 M, and a concentration of the water glass solution is in a range of 0.33 M to 1.0 M.
A communication apparatus comprising a communication control section that is configured to: acquire, in a case of simultaneously performing transmission and reception of a data signal with another communication apparatus using a plurality of Links wherein each of the plurality of Links simultaneously performs transmission and reception of the data signal, first interference information concerning interference between the Links occurring in the other communication apparatus, from the other communication apparatus, and decide a transmission parameter to be used by the other communication apparatus for transmission of a data signal on a basis of the first interference information and second interference information concerning interference between the Links occurring in the communication apparatus . acquire, in a case of simultaneously performing transmission and reception of a data signal with another communication apparatus using a plurality of Links wherein each of the plurality of Links simultaneously performs transmission and reception of the data signal, first interference information concerning interference between the Links occurring in the other communication apparatus, from the other communication apparatus, and decide a transmission parameter to be used by the other communication apparatus for transmission of a data signal on a basis of the first interference information and second interference information concerning interference between the Links occurring in the communication apparatus .