mhurhangee/patent-ind-claim-en huggingface dataset:
A material , comprising elongated, defibrated lamellae from palm trees, and a binding agent , wherein the length of the defibrated lamellae , i.e. the fibres, is at least 20cm, and wherein the material includes palm leaves as another plant-based raw product . elongated, defibrated lamellae from palm trees, and a binding agent , wherein the length of the defibrated lamellae , i.e. the fibres, is at least 20cm, and wherein the material includes palm leaves as another plant-based raw product .
Lighting assembly for a firearm , the lighting assembly comprising: - a housing with an interior for receiving electronic components, wherein the housing extends in a longitudinal direction ; - a light source , wherein the light source is received in the interior of the housing ; - a switch , which is used for switching the light source , wherein the switch is received in the interior of the housing ; - a sealing element , which is used for sealing off the interior of the housing from the environment, wherein the sealing element has an inner side facing the interior of the housing and an outer side facing away from it; - an actuating element , which is used for actuating the switch , characterized in that a force transmission element is formed, wherein the force transmission element is embedded in the sealing element , wherein the force transmission element is designed for force transmission from the actuating element to the switch . - a housing with an interior for receiving electronic components, wherein the housing extends in a longitudinal direction ; - a light source , wherein the light source is received in the interior of the housing ; - a switch , which is used for switching the light source , wherein the switch is received in the interior of the housing ; - a sealing element , which is used for sealing off the interior of the housing from the environment, wherein the sealing element has an inner side facing the interior of the housing and an outer side facing away from it; - an actuating element , which is used for actuating the switch ,
An ear plug for human ears, comprising - a flexible nose portion for insertion into an ear of a user, - a handle portion extending longitudinal from a first end to a second end , being connected to the nose portion on the first end and comprising a fixation structure for fixating a cord having at least one stiffened end segment to the ear plug on the second end , - the fixation structure comprises a first guide channel oriented at least essentially parallel to the longitudinal extension of the handle portion , the first guide channel leading to a first opening at a front surface of the second end , characterized in that - the fixation structure further comprises a second guide channel that extends from a second opening in an outer mantle surface of the handle portion through a third opening into the first guide channel and that is oriented transvers to the first guide channel such that the second guide channel is aligned with the first opening , such that the cord can be attached to the fixation structure of the ear plug by pushing the stiffened end segment through the second guide channel from the second opening through the first guide channel and out of the first opening and subsequently pushing it back directly through the first opening into the first guide channel until the stiffened end segment is arranged beyond the third opening . - a flexible nose portion for insertion into an ear of a user, - a handle portion extending longitudinal from a first end to a second end , being connected to the nose portion on the first end and comprising a fixation structure for fixating a cord having at least one stiffened end segment to the ear plug on the second end , - the fixation structure comprises a first guide channel oriented at least essentially parallel to the longitudinal extension of the handle portion , the first guide channel leading to a first opening at a front surface of the second end , - the fixation structure further comprises a second guide channel that extends from a second opening in an outer mantle surface of the handle portion through a third opening into the first guide channel and that is oriented transvers to the first guide channel such that the second guide channel is aligned with the first opening , such that the cord can be attached to the fixation structure of the ear plug by pushing the stiffened end segment through the second guide channel from the second opening through the first guide channel and out of the first opening and subsequently pushing it back directly through the first opening into the first guide channel until the stiffened end segment is arranged beyond the third opening .
A computer-implemented method for selecting bit widths for a fixed point implementation of a machine learning model, wherein the model comprises a neural network, the method comprising: evaluating a sensitivity of model accuracy to bit widths at each computational stage of the model, each computational stage being a layer of the neural network, wherein the evaluating comprises: injecting a level of noise into at least one computational stage of the model; determining a model accuracy for the at least one computational stage with the injected level of injected noise; and increasing the injected level of noise into the at least one computational stage of the model based on determining that the model accuracy for the at least one computational stage of the injected level of noise is above threshold; and selecting (404; 508) a bit width for both one or more of bias values and weights, and activation values in the computational stages of the model based at least in part on the evaluating. evaluating a sensitivity of model accuracy to bit widths at each computational stage of the model, each computational stage being a layer of the neural network, wherein the evaluating comprises: injecting a level of noise into at least one computational stage of the model; determining a model accuracy for the at least one computational stage with the injected level of injected noise; and increasing the injected level of noise into the at least one computational stage of the model based on determining that the model accuracy for the at least one computational stage of the injected level of noise is above threshold; and injecting a level of noise into at least one computational stage of the model; determining a model accuracy for the at least one computational stage with the injected level of injected noise; and increasing the injected level of noise into the at least one computational stage of the model based on determining that the model accuracy for the at least one computational stage of the injected level of noise is above threshold; and selecting (404; 508) a bit width for both one or more of bias values and weights, and activation values in the computational stages of the model based at least in part on the evaluating.
An apparatus comprising: an imaging visualization workstation including a graphical display device and an electronic data processor, the imaging visualization workstation being configured to perform a method including: spatially registering a biopsy sample (S R , S 0 , S 1 , S 2 , S 3 , S 4 ) extracted from a medical subject with a medical image of the medical subject by identifying a region of the medical image of the medical subject that depicts a location of the medical subject from which the biopsy sample was extracted, by the electronic data processor, combining the medical image with a graphical representation of information generated from the biopsy sample to generate a combined image in which the graphical representation is spatially delineated based on the spatial registration of the biopsy sample by the electronic data processor, characterized in that the information generated from the biopsy sample includes lesion tissue growth rate, and the combining comprises: projecting, based on the size and shape of the lesion in the medical image combined with the lesion tissue growth rate, one or more future lesion boundaries; and wherein generating the combined image comprises generating the projected one or more future lesion boundaries superimposed onto the medical image; and displaying the combined image on the graphical display device of the imaging visualization workstation. spatially registering a biopsy sample (S R , S 0 , S 1 , S 2 , S 3 , S 4 ) extracted from a medical subject with a medical image of the medical subject by identifying a region of the medical image of the medical subject that depicts a location of the medical subject from which the biopsy sample was extracted, by the electronic data processor, combining the medical image with a graphical representation of information generated from the biopsy sample to generate a combined image in which the graphical representation is spatially delineated based on the spatial registration of the biopsy sample by the electronic data processor, characterized in that the information generated from the biopsy sample includes lesion tissue growth rate, and the combining comprises: projecting, based on the size and shape of the lesion in the medical image combined with the lesion tissue growth rate, one or more future lesion boundaries; and wherein generating the combined image comprises generating the projected one or more future lesion boundaries superimposed onto the medical image; and projecting, based on the size and shape of the lesion in the medical image combined with the lesion tissue growth rate, one or more future lesion boundaries; and wherein generating the combined image comprises generating the projected one or more future lesion boundaries superimposed onto the medical image; and displaying the combined image on the graphical display device of the imaging visualization workstation.
A control device comprising: an acquisition unit configured to acquire position and/or attitude information regarding a position and/or an attitude of a manipulation object for being manipulated by a user located at a different position from a head of the user by receiving position and/or attitude information from the manipulation object via a communication unit and configured to acquire position and/or attitude information regarding the head of the user via a sensor ; and a control unit configured to control an image visual field which is a range displayed as an image on a display device mounted on the head of the user based on the position and/or attitude information, at least a part of a virtual space being displayed in the image visual field, characterized in that the control unit selects one of a first image visual field specified by the position and/or attitude information regarding the manipulation object and a second image visual field specified by the position and/or attitude information regarding the head of the user as a range to be displayed as the image on the display device mounted on the head of the user, wherein the control unit selects the second image visual field when a predetermined user manipulation is performed, and wherein the control unit selects the second image visual field when the positions or the attitudes of the manipulation object and the head of the user are changed in mutually different directions. an acquisition unit configured to acquire position and/or attitude information regarding a position and/or an attitude of a manipulation object for being manipulated by a user located at a different position from a head of the user by receiving position and/or attitude information from the manipulation object via a communication unit and configured to acquire position and/or attitude information regarding the head of the user via a sensor ; and a control unit configured to control an image visual field which is a range displayed as an image on a display device mounted on the head of the user based on the position and/or attitude information, at least a part of a virtual space being displayed in the image visual field, the control unit selects one of a first image visual field specified by the position and/or attitude information regarding the manipulation object and a second image visual field specified by the position and/or attitude information regarding the head of the user as a range to be displayed as the image on the display device mounted on the head of the user, wherein the control unit selects the second image visual field when a predetermined user manipulation is performed, and wherein the control unit selects the second image visual field when the positions or the attitudes of the manipulation object and the head of the user are changed in mutually different directions.
A method for transmitting a sidelink synchronization signal, SLSS, and a physical sidelink broadcast channel, PSBCH, performed by a user equipment, UE, in a wireless communication system, the method comprising: determining transmit power for the SLSS and the PSBCH; and transmitting the SLSS and the PSBCH with the determined transmit power, wherein when transmission of the SLSS and the PSBCH is triggered simultaneously for both of device-to-device, D2D, discovery and D2D communication, the transmit power for the SLSS and the PSBCH is determined on the basis of power information P-Max for the D2D communication which gives a value for determining maximum output power of the UE. determining transmit power for the SLSS and the PSBCH; and transmitting the SLSS and the PSBCH with the determined transmit power, wherein when transmission of the SLSS and the PSBCH is triggered simultaneously for both of device-to-device, D2D, discovery and D2D communication, the transmit power for the SLSS and the PSBCH is determined on the basis of power information P-Max for the D2D communication which gives a value for determining maximum output power of the UE.
An FMCW type LIDAR imaging system , adapted to determine a distance z sc separating it from a scene , comprising: ∘ an optical source , adapted to emit a coherent, continuous and frequency-modulated primary signal S p , to illuminate the scene ; ∘ an optical collection element , adapted to collect a portion referred to as collected signal S ret,c of a backscattered signal S ret by the scene from the primary signal S p ; ∘ a photodetector , intended to receive a heterodyne signal S h associated with the collected signal S ret.c ; ∘ a processing unit , adapted to determine the distance z sc of the scene based on a beat frequency of the heterodyne signal S h ; ∘ characterised in that it is adapted to direct the primary signal S p entirely to the scene ; ∘ and in that it comprises a reflector adapted to reflect towards the scene a portion S pr,nc , referred to as uncollected signal S ret,nc , of the backscattered signal S ret and not collected by the optical collection element , • the collected portion S pr,c of the backscattered signal S pr then being formed of: first light beams S ret,c that have not been reflected by the reflector ; and second light beams S ret,c that have been reflected by the reflector then by the scene ; • the heterodyne signal S h then being formed by the interference between the first light beams S ret,c and the second light beams S ret,c . ∘ an optical source , adapted to emit a coherent, continuous and frequency-modulated primary signal S p , to illuminate the scene ; ∘ an optical collection element , adapted to collect a portion referred to as collected signal S ret,c of a backscattered signal S ret by the scene from the primary signal S p ; ∘ a photodetector , intended to receive a heterodyne signal S h associated with the collected signal S ret.c ; ∘ a processing unit , adapted to determine the distance z sc of the scene based on a beat frequency of the heterodyne signal S h ; ∘ characterised in that it is adapted to direct the primary signal S p entirely to the scene ; ∘ and in that it comprises a reflector adapted to reflect towards the scene a portion S pr,nc , referred to as uncollected signal S ret,nc , of the backscattered signal S ret and not collected by the optical collection element , • the collected portion S pr,c of the backscattered signal S pr then being formed of: first light beams S ret,c that have not been reflected by the reflector ; and second light beams S ret,c that have been reflected by the reflector then by the scene ; • the heterodyne signal S h then being formed by the interference between the first light beams S ret,c and the second light beams S ret,c .
A reactance-injecting apparatus for one phase of a multiphase transmission system, comprising: a reactance modifying component configured to inject reactance into one phase of the multiphase transmission system in an operating mode, or to eliminate the injected reactance in a bypass mode; a current sensor configured to sense a current flow in the one phase; a first communication transceiver configured to communicate with a centralized control system; one or more controllers configured to determine whether a fault is detected in the one phase based on the current flow sensed by the current sensor, to operate the reactance modifying component in the bypass mode in response to the fault detected, or to operate the reactance modifying component in the operating mode in response to the fault not detected; characterised by further comprising a second communication transceiver configured to communicate information on the fault detected between the reactance-injecting apparatus and one or more other reactance-injecting apparatuses for one or more other phases of the multiphase transmission system to thereby eliminate all reactance injected by all phases in a time less than a time for a fault localization analysis. a reactance modifying component configured to inject reactance into one phase of the multiphase transmission system in an operating mode, or to eliminate the injected reactance in a bypass mode; a current sensor configured to sense a current flow in the one phase; a first communication transceiver configured to communicate with a centralized control system; one or more controllers configured to determine whether a fault is detected in the one phase based on the current flow sensed by the current sensor, to operate the reactance modifying component in the bypass mode in response to the fault detected, or to operate the reactance modifying component in the operating mode in response to the fault not detected; characterised by further comprising a second communication transceiver configured to communicate information on the fault detected between the reactance-injecting apparatus and one or more other reactance-injecting apparatuses for one or more other phases of the multiphase transmission system to thereby eliminate all reactance injected by all phases in a time less than a time for a fault localization analysis.
A method for deactivating locking of at least one door of a receiving apparatus , the receiving apparatus comprising locking means which are configured to lock the at least one door , the locking means comprising a latch which is configured to automatically lock the at least one door upon closing, the method comprising: - causing unlocking of the at least one door , - capturing opening of the at least one door , - measuring the time since at least one event captured by an access control apparatus of the receiving apparatus took place, the at least one event captured by the access control apparatus being an event associated with a user activity, the at least one event captured by the access control apparatus is detecting a presence of an access authorization verification apparatus in an environment of the access control apparatus, obtaining access authorization information from an access authorization verification apparatus and/or from a user, recording of an input by the user, causing unlocking of the door and/or opening of the door, and - if the at least one door is open and the measured time exceeds a predetermined time threshold value, causing deactivating of locking of the at least one door in such a manner that the at least one door is not lockable. - causing unlocking of the at least one door , - capturing opening of the at least one door , - measuring the time since at least one event captured by an access control apparatus of the receiving apparatus took place, the at least one event captured by the access control apparatus being an event associated with a user activity, the at least one event captured by the access control apparatus is detecting a presence of an access authorization verification apparatus in an environment of the access control apparatus, obtaining access authorization information from an access authorization verification apparatus and/or from a user, recording of an input by the user, causing unlocking of the door and/or opening of the door, and - if the at least one door is open and the measured time exceeds a predetermined time threshold value, causing deactivating of locking of the at least one door in such a manner that the at least one door is not lockable.
An isocyanate composition comprising: a trifunctional isocyanate compound of formula wherein a plurality of Y 1 each independently represent a single bond, or a C1-20 divalent hydrocarbon group which may contain an ester structure and/or an ether structure, and R 24 represents a hydrogen atom or a C1-12 monovalent hydrocarbon group; and 1.0 ppm by mass to 1.0 × 10 4 ppm by mass, based on the isocyanate compound, of a compound having at least one unsaturated bond excluding unsaturated bonds constituting an aromatic ring, the compound being different from the isocyanate compound and of formula wherein, R 1 represents a C2-10 aliphatic group or a C6-10 aromatic group, which may have an isocyanate group, R 2 represents a C2-10 aliphatic group or a C6-25 aromatic group, which does not have an isocyanate group, and a represents an integer of 1 or 2. a trifunctional isocyanate compound of formula wherein a plurality of Y 1 each independently represent a single bond, or a C1-20 divalent hydrocarbon group which may contain an ester structure and/or an ether structure, and R 24 represents a hydrogen atom or a C1-12 monovalent hydrocarbon group; and 1.0 ppm by mass to 1.0 × 10 4 ppm by mass, based on the isocyanate compound, of a compound having at least one unsaturated bond excluding unsaturated bonds constituting an aromatic ring, the compound being different from the isocyanate compound and of formula wherein, R 1 represents a C2-10 aliphatic group or a C6-10 aromatic group, which may have an isocyanate group, R 2 represents a C2-10 aliphatic group or a C6-25 aromatic group, which does not have an isocyanate group, and a represents an integer of 1 or 2.