mhurhangee/patent-ind-claim-en huggingface dataset:
A method of indicating potential tampering with a security system component, the security system component including a camera lens, the method comprising: receiving (S100) an analytic alarm indicative of defocusing of the camera lens; receiving (S104) data from an accelerometer; receiving (S104) data from a light sensor; and using (S106) a computing device to analyze the analytic alarm indicative of defocusing of the camera lens, the data from the accelerometer and the data from the light sensor to determine whether tampering of the security system component has occurred, the analysis includes determining whether a predetermined acceleration threshold has been met at approximately a same time as: a change in lighting of a scene monitored by the camera lens; and the defocusing of the camera lens; and generating a qualified alarm signal when the analysis is indicative of tampering. receiving (S100) an analytic alarm indicative of defocusing of the camera lens; receiving (S104) data from an accelerometer; receiving (S104) data from a light sensor; and using (S106) a computing device to analyze the analytic alarm indicative of defocusing of the camera lens, the data from the accelerometer and the data from the light sensor to determine whether tampering of the security system component has occurred, the analysis includes determining whether a predetermined acceleration threshold has been met at approximately a same time as: a change in lighting of a scene monitored by the camera lens; and the defocusing of the camera lens; and a change in lighting of a scene monitored by the camera lens; and the defocusing of the camera lens; and generating a qualified alarm signal when the analysis is indicative of tampering.
An optical film comprising: a substrate film , a fine recess-protrusion layer formed on one surface of the substrate film and having a recess-protrusion pattern formed on a surface opposite to the substrate film , and a thin-film optical body layer formed on a surface of the fine recess-protrusion layer and having a recess-protrusion pattern on a surface facing the fine recess-protrusion layer , which is a reversed pattern of the recess-protrusion pattern of the fine recess-protrusion layer , characterized by that the same recess-protrusion pattern is formed on both sides of the thin-film optical body layer . a substrate film , a fine recess-protrusion layer formed on one surface of the substrate film and having a recess-protrusion pattern formed on a surface opposite to the substrate film , and a thin-film optical body layer formed on a surface of the fine recess-protrusion layer and having a recess-protrusion pattern on a surface facing the fine recess-protrusion layer , which is a reversed pattern of the recess-protrusion pattern of the fine recess-protrusion layer ,
A pharmaceutical composition comprising Eletriptan Hydrobromide for use as a medicament in the therapy of spinal cord injury.
A multi-energy data processing method, comprising: calculating line integrals by adding an artificial path length of a material of interest to the paths of rays corresponding to collected line integrals; decomposing the collected line integrals and the calculated line integrals into at least two different components; generating difference decomposed line integrals by subtracting the decomposed collected line integrals from the decomposed calculated line integrals; dividing the difference decomposed line integrals by the artificial path length; back-projecting the difference decomposed line integrals; generating landmarks for different compositions of materials in scanned structure by scaling the back-projected difference decomposed line integrals into Hounsfield units, wherein a landmark represents a location of a composition of materials, distorted by beam hardening, in multi-energy Hounsfield Unit space; and using the landmarks to perform an image domain material separation and quantification. calculating line integrals by adding an artificial path length of a material of interest to the paths of rays corresponding to collected line integrals; decomposing the collected line integrals and the calculated line integrals into at least two different components; generating difference decomposed line integrals by subtracting the decomposed collected line integrals from the decomposed calculated line integrals; dividing the difference decomposed line integrals by the artificial path length; back-projecting the difference decomposed line integrals; generating landmarks for different compositions of materials in scanned structure by scaling the back-projected difference decomposed line integrals into Hounsfield units, wherein a landmark represents a location of a composition of materials, distorted by beam hardening, in multi-energy Hounsfield Unit space; and using the landmarks to perform an image domain material separation and quantification.
A cochlear implant system comprising: a signal processor ; an implantable battery and/or communication module ; and a first lead comprising a first conductor , a second conductor , a third conductor , and a fourth conductor and coupling the signal processor and the implantable battery and/or communication module ; wherein the implantable battery and/or communication module is configured to generate power signals, inverted power signals, data signals, and inverted data signals and communicate the power signals, the inverted power signals, the data signals, and the inverted data signals to the signal processor via the first conductor , the second conductor , the third conductor , and the fourth conductor of the first lead , respectively; the implantable battery and/or communication module and/or the signal processor is configured to perform one or more characterization processes to determine one or more characteristics of the first conductor , the second conductor , the third conductor , and/or the fourth conductor ; wherein performing the one or more characterization processes comprises grounding one of the first conductor , the second conductor , the third conductor , or the fourth conductor , and applying a test signal to a different one of the first conductor , the second conductor , the third conductor , or the fourth conductor . a signal processor ; an implantable battery and/or communication module ; and a first lead comprising a first conductor , a second conductor , a third conductor , and a fourth conductor and coupling the signal processor and the implantable battery and/or communication module ; wherein the implantable battery and/or communication module is configured to generate power signals, inverted power signals, data signals, and inverted data signals and communicate the power signals, the inverted power signals, the data signals, and the inverted data signals to the signal processor via the first conductor , the second conductor , the third conductor , and the fourth conductor of the first lead , respectively; the implantable battery and/or communication module and/or the signal processor is configured to perform one or more characterization processes to determine one or more characteristics of the first conductor , the second conductor , the third conductor , and/or the fourth conductor ; wherein performing the one or more characterization processes comprises grounding one of the first conductor , the second conductor , the third conductor , or the fourth conductor , and applying a test signal to a different one of the first conductor , the second conductor , the third conductor , or the fourth conductor .
A method for a reliable ultra-low-latency, RULL, transmission mechanism, comprising: receiving, by a user equipment, UE, a high-level signaling information ; obtaining, by the UE, a first contention transmission unit, CTU, access region for an initial transmission in a first transmission time interval, TTI, and a second CTU access region for a redundant transmission in a second TTI based on the high-level signaling information ; transmitting, by the UE, to a base station, BS, the initial transmission using at least one CTU in the first CTU access region during the first TTI without the UE receiving a scheduling signaling from the BS; and transmitting, by the UE, to the BS, the redundant transmission using at least one CTU in the second CTU access region during the second TTI without the UE waiting for receiving acknowledgement/negative acknowledgement, ACK/NACK feedback, wherein the first CTU access region and the second CTU access region are determined using default RULL mapping rules included in the high-level signaling information. receiving, by a user equipment, UE, a high-level signaling information ; obtaining, by the UE, a first contention transmission unit, CTU, access region for an initial transmission in a first transmission time interval, TTI, and a second CTU access region for a redundant transmission in a second TTI based on the high-level signaling information ; transmitting, by the UE, to a base station, BS, the initial transmission using at least one CTU in the first CTU access region during the first TTI without the UE receiving a scheduling signaling from the BS; and transmitting, by the UE, to the BS, the redundant transmission using at least one CTU in the second CTU access region during the second TTI without the UE waiting for receiving acknowledgement/negative acknowledgement, ACK/NACK feedback, wherein the first CTU access region and the second CTU access region are determined using default RULL mapping rules included in the high-level signaling information.
A measuring apparatus comprising: a base portion attachable to an attachment target object ; and a cover portion configured to be detachably attached to the base portion to accommodate a rod-shaped replaceable object inside the cover portion , wherein the cover portion comprises a battery holding portion configured to hold the replaceable object with the cover portion attached to the base portion , wherein the base portion includes a receiving portion configured to support a longitudinally bottom portion of the replaceable object , wherein the battery holding portion is brought into engagement with a longitudinally top portion of the replaceable object which is not supported by the receiving portion , wherein the battery holding portion has a cylindrical shape enabling the battery holding portion to be brought into engagement with the top portion in a direction in which the cover portion is attached to or detached from the base portion , and wherein the cylindrical shape of the battery holding portion is formed to cover the top portion . a base portion attachable to an attachment target object ; and a cover portion configured to be detachably attached to the base portion to accommodate a rod-shaped replaceable object inside the cover portion , wherein the cover portion comprises a battery holding portion configured to hold the replaceable object with the cover portion attached to the base portion , wherein the base portion includes a receiving portion configured to support a longitudinally bottom portion of the replaceable object , wherein the battery holding portion is brought into engagement with a longitudinally top portion of the replaceable object which is not supported by the receiving portion , wherein the battery holding portion has a cylindrical shape enabling the battery holding portion to be brought into engagement with the top portion in a direction in which the cover portion is attached to or detached from the base portion , and wherein the cylindrical shape of the battery holding portion is formed to cover the top portion .
A method for wireless communication at a user equipment, UE, comprising: receiving a control channel indicating a downlink transmission with repetition in a plurality of subframes; identifying a collision, between the downlink transmission and at least one of a scheduled uplink transmission or a guard frame for the scheduled uplink transmission, in at least one subframe of the plurality of subframes, wherein the collision is identified to occur within a fixed number of one or more subframes following the first subframe in which the control channel is received; and performing a collision management procedure based at least in part on identifying that the collision is identified to occur within the fixed number of one or more subframes, the collision management procedure comprising refraining from transmitting at least part of the scheduled uplink transmission, refraining from decoding at least part of the downlink transmission, or a combination thereof. receiving a control channel indicating a downlink transmission with repetition in a plurality of subframes; identifying a collision, between the downlink transmission and at least one of a scheduled uplink transmission or a guard frame for the scheduled uplink transmission, in at least one subframe of the plurality of subframes, wherein the collision is identified to occur within a fixed number of one or more subframes following the first subframe in which the control channel is received; and performing a collision management procedure based at least in part on identifying that the collision is identified to occur within the fixed number of one or more subframes, the collision management procedure comprising refraining from transmitting at least part of the scheduled uplink transmission, refraining from decoding at least part of the downlink transmission, or a combination thereof.
Latch for a motor vehicle, in particular a side door latch, having a locking mechanism consisting of a catch , a first pawl and a second pawl , it being possible to secure the first pawl in at least one ratchet position by means of the second pawl , a control member for operating the first and second pawl , and an electric drive for operating the control member , the control member having a securing element for the locking mechanism , characterized in that the securing element prevents the first pawl from moving independently out of the engagement region with the locking mechanism , and in that the securing element is arranged between the control member and the first pawl and thereby interacts with the first pawl such that the first pawl is doubly secured.
A method for making a stabilized whole grain flour comprising: a. subjecting a coarse fraction comprising bran, germ and starch to grinding or milling to reduce grittiness of the coarse fraction without damaging the starch, the amount of bran being at least 50% by weight, based upon the weight of the coarse fraction, b. stabilizing the coarse fraction by heating the coarse fraction to reduce the lipase activity of the coarse fraction, wherein the stabilized, ground coarse fraction has a starch melting enthalpy of greater than 4 J/g, based upon the weight of the starch in the stabilized ground coarse fraction, as measured by differential scanning calorimetry (DSC), at a peak temperature of from 65°C to 70°C, and a sodium carbonate-water solvent retention capacity (SRC sodium carbonate) of less than 200%, and c. combining the stabilized coarse fraction with a fine fraction comprising endosperm to obtain a stabilized whole grain flour, wherein said stabilized whole grain wheat flour has a sodium carbonate-water solvent retention capacity (SRC sodium carbonate) of less than 85%, wherein the fine fraction is not subjected to stabilization, in order to avoid substantial gelatinization of starch, and stabilization of the coarse fraction by heating avoids substantial gelatinization of starch contained in the coarse fraction. a. subjecting a coarse fraction comprising bran, germ and starch to grinding or milling to reduce grittiness of the coarse fraction without damaging the starch, the amount of bran being at least 50% by weight, based upon the weight of the coarse fraction, b. stabilizing the coarse fraction by heating the coarse fraction to reduce the lipase activity of the coarse fraction, wherein the stabilized, ground coarse fraction has a starch melting enthalpy of greater than 4 J/g, based upon the weight of the starch in the stabilized ground coarse fraction, as measured by differential scanning calorimetry (DSC), at a peak temperature of from 65°C to 70°C, and a sodium carbonate-water solvent retention capacity (SRC sodium carbonate) of less than 200%, and c. combining the stabilized coarse fraction with a fine fraction comprising endosperm to obtain a stabilized whole grain flour, wherein said stabilized whole grain wheat flour has a sodium carbonate-water solvent retention capacity (SRC sodium carbonate) of less than 85%, wherein the fine fraction is not subjected to stabilization, in order to avoid substantial gelatinization of starch, and stabilization of the coarse fraction by heating avoids substantial gelatinization of starch contained in the coarse fraction.
An illuminant comprising: a transparent substrate layer with a first index of refraction; a connecting layer with a second index of refraction that differs from the first index of refraction; and a metallic, translucent layer ; wherein the connecting layer is arranged between the substrate layer and the metallic layer , characterized in that the substrate layer comprises a plurality of decoupling structures on the side facing the connecting layer , said decoupling structures being suitable for decoupling light that propagates within the substrate layer from the substrate layer in the direction towards the metallic layer , wherein the decoupling structures are formed as cavities within the substrate layer and wherein the cavities are at least partially filled with the material of the connecting layer . a transparent substrate layer with a first index of refraction; a connecting layer with a second index of refraction that differs from the first index of refraction; and a metallic, translucent layer ; wherein the connecting layer is arranged between the substrate layer and the metallic layer , characterized in that the substrate layer comprises a plurality of decoupling structures on the side facing the connecting layer , said decoupling structures being suitable for decoupling light that propagates within the substrate layer from the substrate layer in the direction towards the metallic layer , wherein the decoupling structures are formed as cavities within the substrate layer and wherein the cavities are at least partially filled with the material of the connecting layer .
Method for dosing a continuous elongated element , the method comprising: - advancing said continuous elongated element along a first tract with an advancement direction for feeding in continuous said continuous elongated element to a feeding point (A) with a feeding speed; - in a detection point (R) along said first tract optically detecting in continuous geometrical information relating to a section of said continuous elongated element on a plane substantially perpendicular to said advancement direction ; - calculating in continuous a value representative of an areal extension of said section as a function of said geometrical information; and the method being characterised by - adjusting in continuous said feeding speed as a function of said value representative of the areal extension and of a reference value of feeding flow rate of said continuous elongated element in said feeding point (A). - advancing said continuous elongated element along a first tract with an advancement direction for feeding in continuous said continuous elongated element to a feeding point (A) with a feeding speed; - in a detection point (R) along said first tract optically detecting in continuous geometrical information relating to a section of said continuous elongated element on a plane substantially perpendicular to said advancement direction ; - calculating in continuous a value representative of an areal extension of said section as a function of said geometrical information; and the method being characterised by - adjusting in continuous said feeding speed as a function of said value representative of the areal extension and of a reference value of feeding flow rate of said continuous elongated element in said feeding point (A).
A vehicle lamp , comprising: a semiconductor light source ; a second lens that includes an incident surface disposed on a front side of the light source and a radiation surface configured to radiate light incident from the incident surface to the front of a vehicle , the incident surface having a shape that includes two convex parts each projecting toward the light source at positions outside of a center in the horizontal direction and connecting to each other as an inwardly recessed part on a central side; and a first lens disposed between the light source and the second lens , configured to convert distribution of light from the light source into distribution of light to be incident on the incident surface of the second lens , and radiate the light from the light source at the second lens so that a diffusion light distribution pattern radiated to the front of the vehicle is extended to the outside of the vehicle in a horizontal direction, wherein the recessed part of the incident surface of the second lens is formed in a planar shape to perform light distribution control to form substantially the entire shape of the diffusion light distribution pattern, and an outer part of the incident surface of the second lens in the horizontal direction is formed in a planar shape to perform light distribution control to form a high luminosity zone on the central side in the horizontal direction of the diffusion light distribution pattern. a semiconductor light source ; a second lens that includes an incident surface disposed on a front side of the light source and a radiation surface configured to radiate light incident from the incident surface to the front of a vehicle , the incident surface having a shape that includes two convex parts each projecting toward the light source at positions outside of a center in the horizontal direction and connecting to each other as an inwardly recessed part on a central side; and a first lens disposed between the light source and the second lens , configured to convert distribution of light from the light source into distribution of light to be incident on the incident surface of the second lens , and radiate the light from the light source at the second lens so that a diffusion light distribution pattern radiated to the front of the vehicle is extended to the outside of the vehicle in a horizontal direction, wherein the recessed part of the incident surface of the second lens is formed in a planar shape to perform light distribution control to form substantially the entire shape of the diffusion light distribution pattern, and an outer part of the incident surface of the second lens in the horizontal direction is formed in a planar shape to perform light distribution control to form a high luminosity zone on the central side in the horizontal direction of the diffusion light distribution pattern.