mhurhangee/ep-ind-claims huggingface dataset:
A method for generating a stereoscopic image, comprising the following steps: - get a stereoscopic shooting module consisting of a first imaging device and a second imaging device; - determine the current values of focal length and image sensor's width set on first and second imaging device; - determine the distance value between the shooting module and a distant subject matter, chosen in the current scene to picture; - choose a wished horizontal offset value that shall be performed about that distant subject matter into the resulting stereoscopic image; - determine the distance value between a wished convergence plane and the shooting module; - determine at least one interaxial value, proper to define an interaxial positioning to be set on first and second imaging device, and at least one convergence value, proper to define a converging angular positioning to be set on first and second imaging device, from these said current values of focal length and image sensor's width, said distance value between the shooting module and the chosen distant subject matter, said wished horizontal offset value, said distance value between the wished convergence plane and the shooting module; - set the said interaxial value(s) and the said convergence value(s) on first and second imaging device; - then perform a synchronized imaging capture with first and second imaging device. - get a stereoscopic shooting module consisting of a first imaging device and a second imaging device; - determine the current values of focal length and image sensor's width set on first and second imaging device; - determine the distance value between the shooting module and a distant subject matter, chosen in the current scene to picture; - choose a wished horizontal offset value that shall be performed about that distant subject matter into the resulting stereoscopic image; - determine the distance value between a wished convergence plane and the shooting module; - determine at least one interaxial value, proper to define an interaxial positioning to be set on first and second imaging device, and at least one convergence value, proper to define a converging angular positioning to be set on first and second imaging device, from these said current values of focal length and image sensor's width, said distance value between the shooting module and the chosen distant subject matter, said wished horizontal offset value, said distance value between the wished convergence plane and the shooting module; - set the said interaxial value(s) and the said convergence value(s) on first and second imaging device; - then perform a synchronized imaging capture with first and second imaging device.
Polyalkyl(meth)acrylate polymers, comprising the following monomers: (a) 10 to 25% by weight of esters of (meth)acrylic acid and a hydroxylated hydrogenated polybutadiene; (b) 30% to 65% by weight of C 1-4 alkyl (meth)acrylates; (c) 10% to 30% by weight of styrene; (d) 10% to 43% by weight of C 10-30 alkyl (meth)acrylates, preferably C 10-15 alkyl methacrylates, more preferably C 12-14 alkyl methacrylates; and (e) 0% to 7% by weight of N-containing monomers selected from the group consisting of N,N-dimethylaminoethyl methacrylate (DMAEMA), N-(3-(dimethylamino)propyl)methacrylamide (DMAPMAm) and N-vinylpyrrolidinone, preferably DMAEMA, characterized in that the weight-average molecular weight is in the range of 200,000 to 700,000 g/mol. (a) 10 to 25% by weight of esters of (meth)acrylic acid and a hydroxylated hydrogenated polybutadiene; (b) 30% to 65% by weight of C 1-4 alkyl (meth)acrylates; (c) 10% to 30% by weight of styrene; (d) 10% to 43% by weight of C 10-30 alkyl (meth)acrylates, preferably C 10-15 alkyl methacrylates, more preferably C 12-14 alkyl methacrylates; and (e) 0% to 7% by weight of N-containing monomers selected from the group consisting of N,N-dimethylaminoethyl methacrylate (DMAEMA), N-(3-(dimethylamino)propyl)methacrylamide (DMAPMAm) and N-vinylpyrrolidinone, preferably DMAEMA,
A method of amplifying DNA comprising: a) providing linear double stranded DNA molecules; b) attaching single-stranded adaptors comprising an XTC priming sequence, wherein X is adenine, cytosine, guanine or thymine, to both ends of the linear double stranded DNA molecules to produce single stranded, covalently closed DNA molecules comprising complementary internal sequences, wherein the XTC priming sequence is located in the non-complementary portion of the adaptors; and c) amplifying the single-stranded, covalently closed DNA molecules in a single operation by (i) rolling circle amplification using a DNA polymerase having strand displacement activity and (ii) multiple displacement amplification using TthPrimPol. a) providing linear double stranded DNA molecules; b) attaching single-stranded adaptors comprising an XTC priming sequence, wherein X is adenine, cytosine, guanine or thymine, to both ends of the linear double stranded DNA molecules to produce single stranded, covalently closed DNA molecules comprising complementary internal sequences, wherein the XTC priming sequence is located in the non-complementary portion of the adaptors; and c) amplifying the single-stranded, covalently closed DNA molecules in a single operation by (i) rolling circle amplification using a DNA polymerase having strand displacement activity and (ii) multiple displacement amplification using TthPrimPol.
A medication dispensing device, comprising: an identification sensor configured to read a plurality of codes, each code associated with one of a plurality of medication packages, each medication package housing one of a plurality of different medications; a feeder module configured to receive the plurality of different medications; a singulating module configured to sort the plurality of different medications into discrete doses; a dispensing module configured to dispense the discrete doses; and a processor configured to: determine a medication associated with each medication package based on the code associated with each medication package; receive or determine medication prescription information associated with each determined medication; determine one or more doses and, for each dose, a time at which to be taken for each determined medication based on the medication prescription information; determine a schedule for dispensing discrete doses of the determined medications based on, for each determined medication, the determined doses and, for each dose, the determined time at which to be taken; and activate the dispensing module to dispense the discrete doses of the medication at the determined time at which each dose is to be taken. an identification sensor configured to read a plurality of codes, each code associated with one of a plurality of medication packages, each medication package housing one of a plurality of different medications; a feeder module configured to receive the plurality of different medications; a singulating module configured to sort the plurality of different medications into discrete doses; a dispensing module configured to dispense the discrete doses; and a processor configured to: determine a medication associated with each medication package based on the code associated with each medication package; receive or determine medication prescription information associated with each determined medication; determine one or more doses and, for each dose, a time at which to be taken for each determined medication based on the medication prescription information; determine a schedule for dispensing discrete doses of the determined medications based on, for each determined medication, the determined doses and, for each dose, the determined time at which to be taken; and activate the dispensing module to dispense the discrete doses of the medication at the determined time at which each dose is to be taken. determine a medication associated with each medication package based on the code associated with each medication package; receive or determine medication prescription information associated with each determined medication; determine one or more doses and, for each dose, a time at which to be taken for each determined medication based on the medication prescription information; determine a schedule for dispensing discrete doses of the determined medications based on, for each determined medication, the determined doses and, for each dose, the determined time at which to be taken; and activate the dispensing module to dispense the discrete doses of the medication at the determined time at which each dose is to be taken.
A code sequence transmission method comprising steps of: causing a transmitter and a receiver to set a first channel; deciding a first code sequence and a second code sequence transmitted by the transmitter within a frame constituted by a plurality of sub-frames from a set of first and second code sequences, both of which include a plurality of code sequences; causing the transmitter to perform a calculation by multiplying each bit of the first code sequence and one bit of the second code sequence within each of the sub-frames that constitute the frame, and to transmit the result of said calculation and causing the receiver to determine the first code sequence and the second code sequence received on the first channel from the set of the first and second code sequences; characterized in that said calculation is made in the i-th sub-frame by multiplying each bit included in the first code sequence and the i-th bit included in the second code sequence, wherein i is an integer between one and I, wherein I is a number of bits included in the second code sequence. causing a transmitter and a receiver to set a first channel; deciding a first code sequence and a second code sequence transmitted by the transmitter within a frame constituted by a plurality of sub-frames from a set of first and second code sequences, both of which include a plurality of code sequences; causing the transmitter to perform a calculation by multiplying each bit of the first code sequence and one bit of the second code sequence within each of the sub-frames that constitute the frame, and to transmit the result of said calculation and causing the receiver to determine the first code sequence and the second code sequence received on the first channel from the set of the first and second code sequences; characterized in that said calculation is made in the i-th sub-frame by multiplying each bit included in the first code sequence and the i-th bit included in the second code sequence, wherein i is an integer between one and I, wherein I is a number of bits included in the second code sequence.
A method for notifying a connection attribute, comprising: in a procedure of establishing a connection, when a mobility management element judges that a local IP access, LIPA, connection needs to be established, the mobility management element notifying a user terminal of a connection attribute of the connection, the connection attribute of the connection being that the connection is a LIPA connection; when the mobility management element judges that a core network connection needs to be established, the mobility management element notifying the user terminal of a connection attribute of the connection, the connection attribute of the connection being that the connection is a core network connection (306, 308, 404, 406, 508). in a procedure of establishing a connection, when a mobility management element judges that a local IP access, LIPA, connection needs to be established, the mobility management element notifying a user terminal of a connection attribute of the connection, the connection attribute of the connection being that the connection is a LIPA connection; when the mobility management element judges that a core network connection needs to be established, the mobility management element notifying the user terminal of a connection attribute of the connection, the connection attribute of the connection being that the connection is a core network connection (306, 308, 404, 406, 508).
Method for monitoring the transport of an object, in particular of a postal item, to a delivery point, wherein the object is provided with an identifier (X-point) of the delivery point, during the transport the object passes through a sorting system at least once, the sorting system reads the delivery point identifier (X-point) and triggers the continuation of the transport of the object to the delivery point, the read delivery point identifier (X-point) is transferred to a central computer, the central computer stores the transferred delivery point identifier (X-point), information relating to the transport is transferred to the central computer and by evaluating the transferred information, the central computer determines from which object, of objects which have passed through the sorting system in the given period of time, the transferred information originates, characterised in that the sorting system - measures a number of predetermined identifying parameters and - generates a first feature vector for the object which comprises these parameter values, wherein the feature vector distinguishes the object from all other objects which have passed through the sorting system within a predetermined period of time, upon conclusion of the transport - the values which the predetermined parameters assume for the object are measured again, - a second feature vector for the object is generated, which comprises these parameter values, and - the time instant at which the transport of the object is concluded is measured, and the transferred information comprises the following information relating to the conclusion of the transport: - the measured time instant and - the second feature vector and the determination of the object by the central computer comprises the step that the central computer compares the transferred second feature vector with stored feature vectors. - measures a number of predetermined identifying parameters and - generates a first feature vector for the object which comprises these parameter values, - the values which the predetermined parameters assume for the object are measured again, - a second feature vector for the object is generated, which comprises these parameter values, and - the time instant at which the transport of the object is concluded is measured, and - the measured time instant and - the second feature vector and
A switch illuminating EL (electroluminescence) sheet having a light emitting pattern corresponding to a switch, comprising: a light emitting layer having ZnS-based EL phosphor particles which are contained dispersedly in a dielectric matrix, each of the ZnS-based EL phosphor particles having a damp-proof coating formed on a surface thereof; a transparent electrode layer arranged along a light emitting face of the light emitting layer and constituted of a conductive polymer, wherein the transparent electrode layer constituted of the conductive polymer has a mean thickness of 0.1 μm to 5 μm and a surface resistance of 1000 Ω/□ or lower; a transparent protection film arranged on the transparent electrode layer and having a thickness of 10 μm to 60 μm; and a dielectric layer and a back electrode layer which are arranged in order along a non light emitting face of the light emitting layer, wherein the ZnS-based EL phosphor particles have a mean particle diameter of 10 μm to 23 μm and a particle distribution including 30% or less by mass of constituents having a particle diameter of 25.4 μm or larger. a light emitting layer having ZnS-based EL phosphor particles which are contained dispersedly in a dielectric matrix, each of the ZnS-based EL phosphor particles having a damp-proof coating formed on a surface thereof; a transparent electrode layer arranged along a light emitting face of the light emitting layer and constituted of a conductive polymer, wherein the transparent electrode layer constituted of the conductive polymer has a mean thickness of 0.1 μm to 5 μm and a surface resistance of 1000 Ω/□ or lower; a transparent protection film arranged on the transparent electrode layer and having a thickness of 10 μm to 60 μm; and a dielectric layer and a back electrode layer which are arranged in order along a non light emitting face of the light emitting layer,
A cladding element made of chain mail, for cladding shapes having different radii with the chain mail, wherein the chain mail has at least one blank (10, 20, 30, 40, 50, 60) which, for cladding the shape, is connected at its edges (10a, 20a, 30a, 40a, 50a, 60a) or to the edges (41 a, 51 a) of a further blank (41, 51), wherein the chain mail has a direction of extent in which the chain mail is substantially less stretchable or is not stretchable at all, respectively, than in a transverse direction which extends at a preferably right angle thereto, characterized in that the chain mail is arranged with its direction of extent along an arc of the shape predetermined by the radius and has indentations (12, 22, 32, 42, 52, 62) transversely to the direction of extent, wherein the connection is in particular performed along the edges (10a, 20a, 30a, 40a, 41 a, 50a, 51 a, 60a) of the blanks.
A user verifying bicycle control system, comprising a sensing module and a control module, wherein the sensing module further comprises: a first processing unit; a crank sensing component, connecting the first processing unit, for sensing a torque and/or an angle of a crank of a bicycle; and a speed sensing unit, connecting with the first processing unit for sensing a bicycle speed to obtain a speed signal, and outputting the speed signal to the first processing unit; wherein the sensing module connects with the control module, and provides multiple sensing signals to the control module; the control module receives the sensing signals from the sensing module, and assembles the sensing signals to form a signal sequence; the signal sequence mainly comprises of at least one signal segment combination, and each signal segment combination includes at least two signal segments with characteristic consisting of a crank torque and/ or crank angle value wherein, the sensing signals assembled into the signal sequence include sensed values of the torque and/or the angle of the crank from the crank sensing component; and the control module uses the signal sequence as a key for verifying the user identity; the control module matches characteristics of the input signal sequence to the known signal sequence in order to verify a user identity. a first processing unit; a crank sensing component, connecting the first processing unit, for sensing a torque and/or an angle of a crank of a bicycle; and a speed sensing unit, connecting with the first processing unit for sensing a bicycle speed to obtain a speed signal, and outputting the speed signal to the first processing unit; wherein the sensing module connects with the control module, and provides multiple sensing signals to the control module; the control module receives the sensing signals from the sensing module, and assembles the sensing signals to form a signal sequence; the signal sequence mainly comprises of at least one signal segment combination, and each signal segment combination includes at least two signal segments with characteristic consisting of a crank torque and/ or crank angle value wherein, the sensing signals assembled into the signal sequence include sensed values of the torque and/or the angle of the crank from the crank sensing component; and the control module uses the signal sequence as a key for verifying the user identity; the control module matches characteristics of the input signal sequence to the known signal sequence in order to verify a user identity.
A two-dimensional printing method in a three-dimensional printing block, CHARACTERIZED in that it comprises the steps of: (a) providing the printing block formed of a plurality of hollow tubes, wherein each tube has a cavity acting as support means of a coloring medium; (b) filling the support means with the coloring medium making it flow toward the interior of the plurality of hollow tubes, to follow a printing pattern previously established for the front face of the printing block and so homologating the cavity to a printing pixel; (c) waiting until the coloring medium is dry and the printing block is solidified; and (d) transversally cutting the printing block into a plurality of strips, in parallel to the printing face of the printing block. (a) providing the printing block formed of a plurality of hollow tubes, wherein each tube has a cavity acting as support means of a coloring medium; (b) filling the support means with the coloring medium making it flow toward the interior of the plurality of hollow tubes, to follow a printing pattern previously established for the front face of the printing block and so homologating the cavity to a printing pixel; (c) waiting until the coloring medium is dry and the printing block is solidified; and (d) transversally cutting the printing block into a plurality of strips, in parallel to the printing face of the printing block.
A system for use in a broaching procedure, comprising: a first chip ring that includes a first through slot; a second chip ring that includes a second through slot; and a component to be broached disposed between the first chip ring and the second chip ring that includes a component through slot, where the first, second and component through slots are coaxial along a slot axis that is oriented at a non-zero valued angle relative to a planar surface of the component facing at least one of the first and second chip rings (330-1, 330-2); characterised in that: the first chip ring includes a first angular step in a first exterior surface of the first chip ring, the first exterior surface opposed to the component. a first chip ring that includes a first through slot; a second chip ring that includes a second through slot; and a component to be broached disposed between the first chip ring and the second chip ring that includes a component through slot, where the first, second and component through slots are coaxial along a slot axis that is oriented at a non-zero valued angle relative to a planar surface of the component facing at least one of the first and second chip rings (330-1, 330-2); characterised in that: the first chip ring includes a first angular step in a first exterior surface of the first chip ring, the first exterior surface opposed to the component.