mhurhangee/patent-ind-claim-en huggingface dataset:
An infared, IR, imaging system for detecting a substance, the substance having one or more infrared absorption peaks, the IR imaging system comprising: an optical detection unit comprising: i) an optical detector array , wherein the sensitivity of the optical detector array in a spectral region between 4-6 μm is less than the sensitivity of the optical detector array in a first infrared spectral region between 3-4 μm and a second infrared spectral region between 6-8 μm, and ii) one or more optical filters configured to selectively pass light in a spectral range to the optical detector array , wherein the spectral range comprises at least one of a first wavelength range between about 3-4 μm or a second wavelength range between about 7-8 μm, wherein the optical detector array has increased sensitivity in at least one of the first and the second spectral wavelength ranges. an optical detection unit comprising: i) an optical detector array , wherein the sensitivity of the optical detector array in a spectral region between 4-6 μm is less than the sensitivity of the optical detector array in a first infrared spectral region between 3-4 μm and a second infrared spectral region between 6-8 μm, and ii) one or more optical filters configured to selectively pass light in a spectral range to the optical detector array , i) an optical detector array , wherein the sensitivity of the optical detector array in a spectral region between 4-6 μm is less than the sensitivity of the optical detector array in a first infrared spectral region between 3-4 μm and a second infrared spectral region between 6-8 μm, and in a spectral region between 4-6 μm is less than the sensitivity of the optical detector array in a first infrared spectral region between 3-4 μm and a second infrared spectral region between 6-8 μm, and ii) one or more optical filters configured to selectively pass light in a spectral range to the optical detector array , wherein the spectral range comprises at least one of a first wavelength range between about 3-4 μm or a second wavelength range between about 7-8 μm, wherein the optical detector array has increased sensitivity in at least one of the first and the second spectral wavelength ranges.
Device for connecting body tissues, having a head part , which can be pushed into a body opening and has a longitudinal axis , wherein a plurality of tissue staples are accommodated in the head part in a storage position , which tissue staples consist of a linear main section and two engagement sections projecting perpendicularly therefrom and are each aligned in a first plane which is substantially perpendicular to the longitudinal axis , and having a hydraulic cylinder and a cylinder rod which is fixedly connected to a slider , characterised in that the hydraulic cylinder and/or the cylinder rod are arranged at least partially inside the space which lies between the engagement sections of the tissue staples in the storage position , and in that two rotor elements are provided, which are pivotable about an axis parallel to the main sections of the tissue staples and which each have a bearing surface for an engagement section of a tissue staple in order to rotate the said tissue staple from the storage position into a working position , in which the tissue staple is arranged in a further plane , which is oriented substantially perpendicularly to the first plane , and in that a slider is provided in order to advance the tissue staple which is present in the working position in the further plane and to deform it into a clamping position.
Numbering device with numbering wheels disposed adjacent to one another on an axle which, when rotated to a printing position , can be used to print symbols, wherein at least one of the numbering wheels of the numbering device is driven by a motor , wherein the motor- driven numbering wheels have at least one of a magnetic, optic or inductive marking and wherein the numbering device comprises at least one sensor for the detection of magnetic, optic or inductive markings , characterized in that at least one motor has an encoder for monitoring the motor movement and in that the numbering device has an electronic monitoring system that is in signal communication with the at least one sensor and the encoder of the at least one motor , wherein the electronic monitoring system comprises a memory in which at least one encoder position is stored at which, under regular operating conditions, a magnetic, optic or inductive marking of a numbering wheel should be detected by the sensor and wherein the electronic monitoring system is further configured such that it verifies, when an encoder position stored in the memory is reached or surpassed, whether a magnetic, optic or inductive marking of the corresponding numbering wheel has been detected by the sensor .
A computer-implemented method of audio processing, the method comprising: receiving a first audio signal, wherein the first audio signal has a first sampling frequency; up-sampling the first audio signal to generate a second audio signal, wherein the second audio signal has a second sampling frequency that is greater than the first sampling frequency; outputting , by a loudspeaker, a loudspeaker output corresponding to the second audio signal; capturing , by a microphone, a third audio signal, wherein the third audio signal is sampled at the second sampling frequency; determining a signal power of the third audio signal; and detecting double talk when there is signal power of the third audio signal determined in a frequency band having frequencies all greater than half the first sampling frequency. receiving a first audio signal, wherein the first audio signal has a first sampling frequency; up-sampling the first audio signal to generate a second audio signal, wherein the second audio signal has a second sampling frequency that is greater than the first sampling frequency; outputting , by a loudspeaker, a loudspeaker output corresponding to the second audio signal; capturing , by a microphone, a third audio signal, wherein the third audio signal is sampled at the second sampling frequency; determining a signal power of the third audio signal; and detecting double talk when there is signal power of the third audio signal determined in a frequency band having frequencies all greater than half the first sampling frequency.
Pocket spring core, having a plurality of springs , of which a plurality thereof arranged one behind the other in a row and each lying in a flexible pocket formed preferably of textile material form a bank of springs and a plurality of adjoining banks of springs which jointly form a lying surface are connected to one another, wherein the springs of at least one region of the lying surface are different in their spring behavior with respect to the springs of the adjacent regions, wherein: - at least a part of the individual banks of springs consists of partial banks of springs with different spring behavior, - the pocketed springs of the respective partial banks of springs are the same, - at least some of the adjacent partial banks of springs of adjoining banks of springs are of different lengths, - the adjacent partial banks of springs of adjoining banks of springs are connected to one another by gluing or welding, - the adjacent banks of springs are connected to one another by gluing or welding, - a partial bank of springs of a further bank of springs is arranged between two partial banks of springs of two banks of springs 1, which in its length is different from the partial banks of springs adjacent on both sides, - and the partial banks of springs of adjacent banks of springs overlap in the region of at least one pocketed spring , wherein the production of the pocket spring core takes place fully automatically, characterized in that the partial banks of springs with different spring behavior of an individual bank of springs are not connected to each other - at least a part of the individual banks of springs consists of partial banks of springs with different spring behavior, - the pocketed springs of the respective partial banks of springs are the same, - at least some of the adjacent partial banks of springs of adjoining banks of springs are of different lengths, - the adjacent partial banks of springs of adjoining banks of springs are connected to one another by gluing or welding, - the adjacent banks of springs are connected to one another by gluing or welding, - a partial bank of springs of a further bank of springs is arranged between two partial banks of springs of two banks of springs 1, which in its length is different from the partial banks of springs adjacent on both sides, - and the partial banks of springs of adjacent banks of springs overlap in the region of at least one pocketed spring , wherein the production of the pocket spring core takes place fully automatically,
Baler for agricultural crops, comprising a pressing channel and comprising at least one binding apparatus for a strip-shaped binding material , preferably made of a weldable or bondable plastics material, for wrapping the bale to be pressed, the binding apparatus comprising an integral bond generator , which integrally bonds the binding material , and a front clamping device , which is arranged between the integral bond generator and a pressing ram that can be moved along the longitudinal central axis of the pressing channel , the front clamping device being supported on the baler in a clamping position so as to be stationary and fixed in position and the front clamping device being provided with a deflection apparatus, around which the end region of the strip-shaped binding material is guided in a U-, C- or L-shape when the front clamping device is in the clamping position, characterised in that a hold-down element is pivotally arranged on the front clamping device .
Method to create, for a service provider (ADM), a trusted pool of security devices (SDi) adapted to perform cryptographic operations in a secure service, comprising the steps of: for the service provider (ADM), setting up a secure service by allocating a first security device (SD1) in the service, the method being characterized in that it further comprises steps of: for the service provider (ADM), setting (S2) the first security device's clock to an accurate time value (UTS), creating (S5) an internal secure-service-object (SSO), said secure-service-object (SSO) defining at least a service clock-instance (SCI), service-specific cryptographic keys and certificates used to protect communication between a resource owner's security application (App) and a security device (SD) part of the secure service, and a max-delta-time (MDT) value and a max-daily-correction (MDC) per day value limiting a drift between two devices of the pool, said secure-service-object (SSO) being maintained by the first security device (SD1) internally preventing any service provider from arbitrarily changing it, when at least one additional security device (SDi) is to be added to the security service, for the service provider (ADM), setting (S10) the at least one additional security device's clock to an accurate time value (UTS), collecting (S11) at the first security device (SD1), a signed join request from the additional security device (SD2) including a snapshot of the additional security device's clock (T2), and allocating the additional security device (SD2) to the secure service only if its clock's snapshot (T2) respects the max-delta-time (MDT). for the service provider (ADM), setting (S2) the first security device's clock to an accurate time value (UTS), creating (S5) an internal secure-service-object (SSO), said secure-service-object (SSO) defining at least a service clock-instance (SCI), service-specific cryptographic keys and certificates used to protect communication between a resource owner's security application (App) and a security device (SD) part of the secure service, and a max-delta-time (MDT) value and a max-daily-correction (MDC) per day value limiting a drift between two devices of the pool, said secure-service-object (SSO) being maintained by the first security device (SD1) internally preventing any service provider from arbitrarily changing it, when at least one additional security device (SDi) is to be added to the security service, for the service provider (ADM), setting (S10) the at least one additional security device's clock to an accurate time value (UTS), collecting (S11) at the first security device (SD1), a signed join request from the additional security device (SD2) including a snapshot of the additional security device's clock (T2), and allocating the additional security device (SD2) to the secure service only if its clock's snapshot (T2) respects the max-delta-time (MDT).
Sole for a running shoe having a soft-elastic midsole which has an underside which comes at least partially into contact with the ground (B) during running, the midsole comprising a plurality of channels extending in the transverse direction (Q), the channels being arranged in a lateral area of the midsole in at least a first and a second horizontal plane, wherein the first and second horizontal plane are vertically offset from one another, and wherein the channels are each delimited in the longitudinal direction (L) by a front wall and a rear wall , characterized in that the channels are vertically and/or horizontally in the longitudinal direction (L) deformable until their closure under the action of forces occurring during running, acting vertically (V) and/or in the longitudinal direction.
An antenna comprising: a planar dielectric substrate ; a first conductive annulus on a first surface of the substrate ; a first conductive land on the first surface, wherein the first conductive land lies in a region of the surface bounded by the first conductive annulus and an edge of the first conductive land is adjacent to, and parallel to, a portion of an inward edge of the first conductive annulus , wherein the first conductive land comprises a first arc on the first surface and wherein the first conductive land further comprises a first stem connected to the first arc and the first stem is separate from the first conductive annulus ; a second conductive land provided on the first surface wherein an edge of the second conductive land is adjacent to, and parallel to, a portion of an outward edge of the first conductive annulus ; a second stem _ connected to the outward edge of the first conductive annulus . a planar dielectric substrate ; a first conductive annulus on a first surface of the substrate ; a first conductive land on the first surface, wherein the first conductive land lies in a region of the surface bounded by the first conductive annulus and an edge of the first conductive land is adjacent to, and parallel to, a portion of an inward edge of the first conductive annulus , wherein the first conductive land comprises a first arc on the first surface and wherein the first conductive land further comprises a first stem connected to the first arc and the first stem is separate from the first conductive annulus ; a second conductive land provided on the first surface wherein an edge of the second conductive land is adjacent to, and parallel to, a portion of an outward edge of the first conductive annulus ; a second stem _ connected to the outward edge of the first conductive annulus .
A porous medium parameter measurement device configured for measuring water tension related parameters in a porous medium comprising: i) a liquid permeable portion comprising a liquid permeable component and a polymer swellable solution ; characterized in that the porous medium parameter measurement device further comprises ii) a gas permeable portion comprising a gas permeable component ; wherein the liquid permeable portion is in operative communication with the gas permeable portion through the gas permeable component ; and wherein the gas permeable component is in operative communication with the porous medium to purge gases from the liquid permeable portion to the porous medium . i) a liquid permeable portion comprising a liquid permeable component and a polymer swellable solution ; characterized in that the porous medium parameter measurement device further comprises ii) a gas permeable portion comprising a gas permeable component ; wherein the liquid permeable portion is in operative communication with the gas permeable portion through the gas permeable component ; and wherein the gas permeable component is in operative communication with the porous medium to purge gases from the liquid permeable portion to the porous medium .
A method for controlling access of a user equipment, UE, at a mobile management entity, MME, in a communication system including a femto base station, BS, and a core network, the method comprising receiving , from the UE, a service request message, and searching for subscriber information regarding the UE, wherein the subscriber information comprises information regarding which femto BS to the UE can access and information regarding to which UE an local break out, LBO, service is permitted; determining whether the UE is permitted to access an internet protocol, IP, network through the femto BS based on the searched subscriber information; and if the UE is permitted to access the IP network through the femto BS, transmitting , to the femto BS, a message for permitting that the UE accesses the IP network through the femto BS, wherein when if the UE is permitted to access the IP network through the femto BS, IP traffic data transmitted from the UE is transmitted to an external public internet network using an IP address allocated by the femto BS. receiving , from the UE, a service request message, and searching for subscriber information regarding the UE, wherein the subscriber information comprises information regarding which femto BS to the UE can access and information regarding to which UE an local break out, LBO, service is permitted; determining whether the UE is permitted to access an internet protocol, IP, network through the femto BS based on the searched subscriber information; and if the UE is permitted to access the IP network through the femto BS, transmitting , to the femto BS, a message for permitting that the UE accesses the IP network through the femto BS, wherein when if the UE is permitted to access the IP network through the femto BS, IP traffic data transmitted from the UE is transmitted to an external public internet network using an IP address allocated by the femto BS.
A method for producing a coated packaging material , more particularly a laminate, comprising at least the steps of: a) providing a cellulose-containing substrate ; b) coating at least one surface region of the substrate with a curable composition and curing the composition to form a priming coat ; and c) generating a metal-containing layer on at least one surface region of the priming coat ; characterized in that the composition used in step b) comprises at least one ionically polymerizable monomer, which is cured by ionic polymerization, and in that the composition used in step b) is not a radically polymerizing composition. a) providing a cellulose-containing substrate ; b) coating at least one surface region of the substrate with a curable composition and curing the composition to form a priming coat ; and c) generating a metal-containing layer on at least one surface region of the priming coat ;
A cross-linked rubber product for a fuel seal, obtained by cross-linking a nitrile rubber composition including: a nitrile rubber (A) containing 25 to 80% by weight of α,β-ethylenically unsaturated nitrile monomer units (a1), 20 to 75% by weight of conjugated diene monomer units (a2), and 0 to 30% by weight of cationic monomer units and/or monomer units capable of forming a cation (a3), and having a compression set ratio of 20% or less after being compressed in an atmosphere of 100°C for 70 hours; and an inorganic filler (B) having an aspect ratio of 30 to 2,000, a content of the inorganic filler (B) being from 1 to 200 parts by weight with respect to 100 parts by weight of the nitrile rubber (A), and obtained by subjecting the nitrile rubber composition to secondary vulcanization at 100 to 130°C for 1 to 24 hours, wherein the compression set ratio is measured based on JIS K6262, and the aspect ratio of the inorganic filler (B) is calculated by determining a ratio between a planar average diameter and an average thickness of primary particles of the inorganic filler (B), wherein the planar average diameter and the average thickness are number average values obtained by measuring diameters in a plane direction and thicknesses of randomly selected 100 particles of the inorganic filler (B) with an atomic force microscope, and calculating an arithmetic average value thereof. a nitrile rubber (A) containing 25 to 80% by weight of α,β-ethylenically unsaturated nitrile monomer units (a1), 20 to 75% by weight of conjugated diene monomer units (a2), and 0 to 30% by weight of cationic monomer units and/or monomer units capable of forming a cation (a3), and having a compression set ratio of 20% or less after being compressed in an atmosphere of 100°C for 70 hours; and an inorganic filler (B) having an aspect ratio of 30 to 2,000, a content of the inorganic filler (B) being from 1 to 200 parts by weight with respect to 100 parts by weight of the nitrile rubber (A), and obtained by subjecting the nitrile rubber composition to secondary vulcanization at 100 to 130°C for 1 to 24 hours, wherein the compression set ratio is measured based on JIS K6262, and the aspect ratio of the inorganic filler (B) is calculated by determining a ratio between a planar average diameter and an average thickness of primary particles of the inorganic filler (B), wherein the planar average diameter and the average thickness are number average values obtained by measuring diameters in a plane direction and thicknesses of randomly selected 100 particles of the inorganic filler (B) with an atomic force microscope, and calculating an arithmetic average value thereof.