mhurhangee/patent-ind-claim-en huggingface dataset:
An eyepiece assembly comprising: a first cover layer ; a second cover layer ; a multiplicity of optical waveguides positioned between the first cover layer and the second cover layer , wherein the first cover layer is adjacent to a first optical waveguide and the second cover layer is adjacent to a second optical waveguide ; and an adhesive between: the first cover layer and the first optical waveguide , the second cover layer and the second optical waveguide , and adjacent pairs of optical waveguides ; wherein the first cover layer , the second cover layer , and each optical waveguide of the multiplicity of optical waveguides comprises a polymer material, and characterized in that a coefficient of thermal expansion of the polymer material and the adhesive is substantially the same; and in that a contact angle of water on a surface of the multiplicity of optical waveguides exceeds 90°. a first cover layer ; a second cover layer ; a multiplicity of optical waveguides positioned between the first cover layer and the second cover layer , wherein the first cover layer is adjacent to a first optical waveguide and the second cover layer is adjacent to a second optical waveguide ; and an adhesive between: the first cover layer and the first optical waveguide , the second cover layer and the second optical waveguide , and adjacent pairs of optical waveguides ; the first cover layer and the first optical waveguide , the second cover layer and the second optical waveguide , and adjacent pairs of optical waveguides ; wherein the first cover layer , the second cover layer , and each optical waveguide of the multiplicity of optical waveguides comprises a polymer material, and characterized in that a coefficient of thermal expansion of the polymer material and the adhesive is substantially the same; and in that a contact angle of water on a surface of the multiplicity of optical waveguides exceeds 90°.
Ground compaction device, comprising: - an upper mass ; and comprising - a lower mass which is movable relative to the upper mass , is coupled to the upper mass by a spring device and comprises a ground contact element for ground compaction; wherein - a drive for generating a working movement of the ground contact element is provided on the upper mass ; - the drive has a tamping device and an electric motor for driving the tamping device; - the tamping device has: a crank wheel which can be driven in rotating manner by the electric motor , a connection rod which is coupled to the crank wheel , and a tamping piston which is coupled to the connection rod , can be moved in a reciprocating manner and interacts with the spring device ; - the electric motor has a stator and a rotor ; and wherein - the rotor is rigidly or elastically coupled to the crank wheel ; characterised in that - the stator encloses the rotor over an angle of less than 360 degrees. - an upper mass ; and comprising - a lower mass which is movable relative to the upper mass , is coupled to the upper mass by a spring device and comprises a ground contact element for ground compaction; - a drive for generating a working movement of the ground contact element is provided on the upper mass ; - the drive has a tamping device and an electric motor for driving the tamping device; - the tamping device has: a crank wheel which can be driven in rotating manner by the electric motor , a connection rod which is coupled to the crank wheel , and a tamping piston which is coupled to the connection rod , can be moved in a reciprocating manner and interacts with the spring device ; - the electric motor has a stator and a rotor ; and - the rotor is rigidly or elastically coupled to the crank wheel ; characterised in that - the stator encloses the rotor over an angle of less than 360 degrees.
A composition comprising: calcium silicate in the form of discrete crystalline calcium silicate phases selected from one or more of CS (wollastonite or pseudowollastonite), C3S2 (rankinite), and C2S (belite, larnite, bredigite), and calcium silicate in the form of an amorphous calcium silicate phase, wherein the one or more discrete crystalline calcium silicate phases are present in the composition in an amount of 30% or more by mass of the total phases; elemental Ca and elemental Si are present in the composition at a molar ratio from 0.8 to 1.2; and metal oxides of Al, Fe and Mg are present in the composition at 30% or less by total oxide mass, wherein each of these calcium silicate phases is suitable for carbonation with CO 2 , and the composition is suitable for carbonation with CO 2 at a temperature of 30°C to 90°C to form CaCO 3 with a mass gain of 10% or more. calcium silicate in the form of discrete crystalline calcium silicate phases selected from one or more of CS (wollastonite or pseudowollastonite), C3S2 (rankinite), and C2S (belite, larnite, bredigite), and calcium silicate in the form of an amorphous calcium silicate phase, wherein the one or more discrete crystalline calcium silicate phases are present in the composition in an amount of 30% or more by mass of the total phases; elemental Ca and elemental Si are present in the composition at a molar ratio from 0.8 to 1.2; and metal oxides of Al, Fe and Mg are present in the composition at 30% or less by total oxide mass, wherein each of these calcium silicate phases is suitable for carbonation with CO 2 , and the composition is suitable for carbonation with CO 2 at a temperature of 30°C to 90°C to form CaCO 3 with a mass gain of 10% or more.
A nucleic acid molecule comprising a nucleotide sequence encoding for a functional preproinsulin protein wherein the nucleotide sequence has at least 89% identity to the sequence of SEQ ID NO. 1.
A method by a User Equipment, UE, for using emergency information, comprising: transmitting a request message as part of a Non-Access Stratum, NAS, procedure; receiving, in response to the request message, a response message comprising a list of at least one emergency number; determining that a dialed number matches the at least one emergency number; upon determining that the dialed number matches the at least one emergency number, selecting a domain to perform a call setup procedure; when the selected domain is a Packet Switched, PS, domain, performing an emergency call setup procedure; and when the selected domain is a Circuit Switched, CS, domain, performing a basic call setup procedure. transmitting a request message as part of a Non-Access Stratum, NAS, procedure; receiving, in response to the request message, a response message comprising a list of at least one emergency number; determining that a dialed number matches the at least one emergency number; upon determining that the dialed number matches the at least one emergency number, selecting a domain to perform a call setup procedure; when the selected domain is a Packet Switched, PS, domain, performing an emergency call setup procedure; and when the selected domain is a Circuit Switched, CS, domain, performing a basic call setup procedure.
A sample observation device , comprising: an irradiation optical system configured to emit planar light (L2) to a sample (S); a sample container configured to hold the sample (S) and having an input surface of the planar light (L2), wherein the optical axis (P1) of the planar light (L2) by the irradiation optical system is arranged so as to be perpendicular to the input surface of the sample container ; a scanning unit configured to scan the sample (S) in one direction so as to pass through an irradiation surface (R) of the planar light (L2); an imaging optical system that has an observation axis inclined with respect to the irradiation surface (R), the imaging optical system being configured to form an image of observation light (L3) generated in the sample (S) by irradiation of the planar light (L2); an image acquisition unit configured to acquire image data corresponding to an optical image of the observation light (L3) formed by the imaging optical system ; and an image generation unit configured to generate observation image data of the sample (S) based on the image data acquired by the image acquisition unit , wherein the imaging optical system has a non-axisymmetric optical element that is configured to bend a light beam (L3a) on one axis of the observation light (L3) but to not bend a light beam (L3b) on the other axis perpendicular to the one axis. an irradiation optical system configured to emit planar light (L2) to a sample (S); a sample container configured to hold the sample (S) and having an input surface of the planar light (L2), wherein the optical axis (P1) of the planar light (L2) by the irradiation optical system is arranged so as to be perpendicular to the input surface of the sample container ; a scanning unit configured to scan the sample (S) in one direction so as to pass through an irradiation surface (R) of the planar light (L2); an imaging optical system that has an observation axis inclined with respect to the irradiation surface (R), the imaging optical system being configured to form an image of observation light (L3) generated in the sample (S) by irradiation of the planar light (L2); an image acquisition unit configured to acquire image data corresponding to an optical image of the observation light (L3) formed by the imaging optical system ; and an image generation unit configured to generate observation image data of the sample (S) based on the image data acquired by the image acquisition unit , wherein the imaging optical system has a non-axisymmetric optical element that is configured to bend a light beam (L3a) on one axis of the observation light (L3) but to not bend a light beam (L3b) on the other axis perpendicular to the one axis.
Flat weather protection canopy, comprising - a carrying frame which can be positioned horizontally above a protected area (S) by a support ring device , and - a canopy-fabric web which can be wound up on a fabric-web shaft , arranged on the carrying frame , such that it can be extended and retracted, = wherein the water-impermeable canopy-fabric web is held in a tensioned manner in an at least partially extended position by virtue of the fact that the leading edge thereof, facing in the direction of extension (A), is held in a front profile displaceably mounted on the carrying frame and that the lateral edges thereof, lying parallel to the direction of extension (A), are displaceably guided in the carrying frame , - characterized in that a plurality of water drainage openings are arranged in a row or a grid arrangement in a centrally located region of the canopy-fabric web , wherein the direction of the row of water drainage openings runs parallel to the direction of extension (A) of the canopy-fabric web , and - in that a water drainage device for taking the water draining through the water drainage openings away from the protected area (S) is provided underneath the water drainage openings . - a carrying frame which can be positioned horizontally above a protected area (S) by a support ring device , and - a canopy-fabric web which can be wound up on a fabric-web shaft , arranged on the carrying frame , such that it can be extended and retracted, = wherein the water-impermeable canopy-fabric web is held in a tensioned manner in an at least partially extended position by virtue of the fact that the leading edge thereof, facing in the direction of extension (A), is held in a front profile displaceably mounted on the carrying frame and that the lateral edges thereof, lying parallel to the direction of extension (A), are displaceably guided in the carrying frame , - characterized in that a plurality of water drainage openings are arranged in a row or a grid arrangement in a centrally located region of the canopy-fabric web , wherein the direction of the row of water drainage openings runs parallel to the direction of extension (A) of the canopy-fabric web , and - in that a water drainage device for taking the water draining through the water drainage openings away from the protected area (S) is provided underneath the water drainage openings .
A process for preparation of racemic nicotine comprising the steps of: i. mixing 3-pyridylaldehyde and acrylonitrile in presence of dimethylformamide and sodium cyanide using Stetter reaction at a temperature in the range of 30-40 °C to obtain ketonitrile; ii. reducing the ketonitrile as obtained in step (i) in presence of reducing reagent in alcoholic solvent followed by cyclisation to obtain nornicotine; iii. methylating of nornicotine as obtained in step (ii) using sodium acetate, formalin, and sodium cyanoborohydride in water followed by purification by column chromatography to obtain the pure racemic nicotine, optionally isolating and purifying intermediate compounds obtained in step (i) and (ii). i. mixing 3-pyridylaldehyde and acrylonitrile in presence of dimethylformamide and sodium cyanide using Stetter reaction at a temperature in the range of 30-40 °C to obtain ketonitrile; ii. reducing the ketonitrile as obtained in step (i) in presence of reducing reagent in alcoholic solvent followed by cyclisation to obtain nornicotine; iii. methylating of nornicotine as obtained in step (ii) using sodium acetate, formalin, and sodium cyanoborohydride in water followed by purification by column chromatography to obtain the pure racemic nicotine, optionally isolating and purifying intermediate compounds obtained in step (i) and (ii).
A method for configuring a path for intercepting user data, comprising: acquiring , by a control plane entity, GW-C, identifier information of a target to be intercepted and an intercepting interface address, wherein the intercepting interface address is an X3 interface address of an intercepting entity; configuring , by the GW-C, data path configuration information on a user plane entity GW-U according to the identifier information of the target to be intercepted and the intercepting interface address, wherein the data path configuration information comprises[B11] an IP address of the target to be intercepted and a connection identifier for a connection between the GW-U and the intercepting entity, wherein the connection identifier is allocated by the GW-C; sending , by the GW-C, the data path configuration information to the user plane entity GW-U; and initiating , by the GW-C, an establishment of an intercepting connection of an X3 interface to the intercepting entity based on the intercepting interface address so as to transmit data of the target to be intercepted. acquiring , by a control plane entity, GW-C, identifier information of a target to be intercepted and an intercepting interface address, wherein the intercepting interface address is an X3 interface address of an intercepting entity; configuring , by the GW-C, data path configuration information on a user plane entity GW-U according to the identifier information of the target to be intercepted and the intercepting interface address, wherein the data path configuration information comprises[B11] an IP address of the target to be intercepted and a connection identifier for a connection between the GW-U and the intercepting entity, wherein the connection identifier is allocated by the GW-C; sending , by the GW-C, the data path configuration information to the user plane entity GW-U; and initiating , by the GW-C, an establishment of an intercepting connection of an X3 interface to the intercepting entity based on the intercepting interface address so as to transmit data of the target to be intercepted.
Portable tool comprising: - a hollow body delimiting two chambers and comprising a shoulder and a barrel extending from the shoulder , - a cylinder comprising a piston that slides in the chambers and a stem that is secured to the piston and is accommodated in the barrel , and - an attachment system comprising a channel created on the perimeter of the barrel , - the tool comprising a C-shaped head , of which a first end forms a shoe that has a bore created in it and that presses against the shoulder , and of which a second end faces the free end of the stem , characterized in that the attachment system comprises two sliders (126a-b) which are mounted so as to be able to slide on the shoe parallel to a plane of motion that is perpendicular to the axis of the barrel , where each slider (126a-b) has a front in the form of an arc of a circle and is able to move between a tightened position in which the front is accommodated in the channel , and a separated position in which the front is out of the channel . - a hollow body delimiting two chambers and comprising a shoulder and a barrel extending from the shoulder , - a cylinder comprising a piston that slides in the chambers and a stem that is secured to the piston and is accommodated in the barrel , and - an attachment system comprising a channel created on the perimeter of the barrel , - the tool comprising a C-shaped head , of which a first end forms a shoe that has a bore created in it and that presses against the shoulder , and of which a second end faces the free end of the stem ,
A mobile communication terminal device, comprising: an operation unit for registering information related to a predetermined region in which a user desires QoS guarantee, wherein, at the time of registering the information related to the predetermined region, the mobile communication terminal device is not located in the predetermined region; a sending unit for sending the information related to the predetermined region registered in the operation unit and information that identifies a current position of the mobile communication terminal device; a receiving unit configured to receive QoS guaranteed data, wherein the QoS guaranteed data is sent to the mobile communication terminal device only when the current position of the mobile communication terminal device is in the predetermined region; and a control unit for controlling the sending of the information in the sending unit and the receiving of the QoS guaranteed data in the receiving unit . an operation unit for registering information related to a predetermined region in which a user desires QoS guarantee, wherein, at the time of registering the information related to the predetermined region, the mobile communication terminal device is not located in the predetermined region; a sending unit for sending the information related to the predetermined region registered in the operation unit and information that identifies a current position of the mobile communication terminal device; a receiving unit configured to receive QoS guaranteed data, wherein the QoS guaranteed data is sent to the mobile communication terminal device only when the current position of the mobile communication terminal device is in the predetermined region; and a control unit for controlling the sending of the information in the sending unit and the receiving of the QoS guaranteed data in the receiving unit .
A system to manufacture a tire, the system comprising: one or more processors and a memory, the memory configured to store instructions that are executable by the one or more processors and cause the one or more processors to: receive, from one or more sensors of one or more pieces of tire manufacturing equipment in a tire manufacturing plant, one or more values corresponding to manufacture of a tire by the one or more pieces of tire manufacturing equipment ; determine one or more metrics based on the one or more values; generate a matrix based on the one or more values and the one or more metrics; predict, via input of the matrix into a machine learning model constructed to output tire manufacturing performance data, a value for a splice tolerance metric for the tire; determine, based on the value for the splice tolerance metric, a parameter of at least one piece of equipment in the tire manufacturing plant to adjust; and provide a command to adjust the at least one piece of equipment in the tire manufacturing plant responsive to the value of the splice tolerance metric. receive, from one or more sensors of one or more pieces of tire manufacturing equipment in a tire manufacturing plant, one or more values corresponding to manufacture of a tire by the one or more pieces of tire manufacturing equipment ; determine one or more metrics based on the one or more values; generate a matrix based on the one or more values and the one or more metrics; predict, via input of the matrix into a machine learning model constructed to output tire manufacturing performance data, a value for a splice tolerance metric for the tire; determine, based on the value for the splice tolerance metric, a parameter of at least one piece of equipment in the tire manufacturing plant to adjust; and provide a command to adjust the at least one piece of equipment in the tire manufacturing plant responsive to the value of the splice tolerance metric.
A method for reducing crosstalk of a display , the display configured to display a first number of views, the method comprising: reducing the first number of views to a second number of views less than the first number of views by applying a second number of image signals to groups of adjacent views of the first number of views, wherein each image signal of the second number of image signals is applied to a respective one of the groups of adjacent views so that a same respective image signal is applied to the repsective group of adjacent views, and wherein each group of adjacent views includes a corresponding group of adjacent pixels; for at least one group of adjacent pixels, adjusting a luminance profile of the adjacent pixels of the group by reducing a luminance of pixels located at a periphery on each side of said group with respect to a luminance of other pixels of the group; and reproducing images on the display using the second number of views with the adjusted luminance profile. reducing the first number of views to a second number of views less than the first number of views by applying a second number of image signals to groups of adjacent views of the first number of views, wherein each image signal of the second number of image signals is applied to a respective one of the groups of adjacent views so that a same respective image signal is applied to the repsective group of adjacent views, and wherein each group of adjacent views includes a corresponding group of adjacent pixels; for at least one group of adjacent pixels, adjusting a luminance profile of the adjacent pixels of the group by reducing a luminance of pixels located at a periphery on each side of said group with respect to a luminance of other pixels of the group; and reproducing images on the display using the second number of views with the adjusted luminance profile.