mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a base station for wireless communications, comprising: receiving, at the base station operating in a wireless communication network having a user-centric medium access control layer which allows the wireless communication network to transmit system information upon request by a user equipment , at least one signal from at least one user equipment to contact the wireless communication network based on detecting one or more broadcast signals related to synchronizing communications with the wireless communication network , the signal referred to as a chirp signal and having one or more system information requests from the at least one user equipment , wherein the at least one chirp signal includes a system information block request bitmap that identifies one or more of a plurality of system information blocks corresponding to each of the one or more system information requests ; identifying the one or more system information requests ; generating a message in response to the one or more system information requests ; encoding at least a portion of the message with a coding scheme which is based on the system information block request bitmap to define an encoded message; and transmitting, over a broadcast channel, the encoded message in response to the at least one chirp signal . receiving, at the base station operating in a wireless communication network having a user-centric medium access control layer which allows the wireless communication network to transmit system information upon request by a user equipment , at least one signal from at least one user equipment to contact the wireless communication network based on detecting one or more broadcast signals related to synchronizing communications with the wireless communication network , the signal referred to as a chirp signal and having one or more system information requests from the at least one user equipment , wherein the at least one chirp signal includes a system information block request bitmap that identifies one or more of a plurality of system information blocks corresponding to each of the one or more system information requests ; identifying the one or more system information requests ; generating a message in response to the one or more system information requests ; encoding at least a portion of the message with a coding scheme which is based on the system information block request bitmap to define an encoded message; and transmitting, over a broadcast channel, the encoded message in response to the at least one chirp signal .
Active material composition for a positive electrode of a lithium-ion secondary cell, comprising: - a lithiated transition metal oxide of formula Li 1+x MO 2 wherein: 0 ≤ x ≤ 0.15, M denotes Ni a Mn b Co c M' d where a > 0; b > 0; c > 0; d ≥ 0; and a + b + c + d = 1; M' being selected from the group consisting of B, Mg, Al, Si, Ca, Ti, V, Cr, Fe, Cu, Zn, Y, Zr, Nb, Mo or a mixture thereof; - a lithiated transition metal phosphate of formula LiMn 1-y M" y PO 4 where M" represents at least one element selected from the group consisting of Fe, Ni, Co, Mg and Zn; and 0 < y < 0.5; the lithiated oxide and the lithiated phosphate being in the form of particles; the particle size distribution of the lithiated oxide being characterized by a first volume median diameter of the particles Dv 50 1 ≥ 500 nm; the particle size distribution of the lithiated phosphate being characterized by a second volume median diameter of the particles Dv 50 2 ≥ 500 nm; and Dv 50 2 / Dv 50 1 ≥ 1.5. - a lithiated transition metal oxide of formula Li 1+x MO 2 wherein: 0 ≤ x ≤ 0.15, M denotes Ni a Mn b Co c M' d where a > 0; b > 0; c > 0; d ≥ 0; and a + b + c + d = 1; M' being selected from the group consisting of B, Mg, Al, Si, Ca, Ti, V, Cr, Fe, Cu, Zn, Y, Zr, Nb, Mo or a mixture thereof; - a lithiated transition metal phosphate of formula LiMn 1-y M" y PO 4 where M" represents at least one element selected from the group consisting of Fe, Ni, Co, Mg and Zn; and 0 < y < 0.5; the lithiated oxide and the lithiated phosphate being in the form of particles;
Apparatus for forming a fluid circulation system, the apparatus comprising a. a supply line with a first connection element , b. a collection container that is connected to the supply line , c. a pump to convey the fluid, d. an irradiation bag that is connected to the collection container by means of a connection line , e. a discharge line that is connected to the irradiation bag , with a second connection element , wherein all components of the apparatus are non-detachably connected to each other, characterized in that at least one sampling container is connected to the collection container . a. a supply line with a first connection element , b. a collection container that is connected to the supply line , c. a pump to convey the fluid, d. an irradiation bag that is connected to the collection container by means of a connection line , e. a discharge line that is connected to the irradiation bag , with a second connection element , wherein all components of the apparatus are non-detachably connected to each other, characterized in that at least one sampling container is connected to the collection container .
Interference signal measuring facility in a differential voltage measuring system with a signal measuring circuit for measuring bioelectric signals (S(k)) with a number of useful signal paths (6a; 6b) each with a sensor electrode having: - an additional sensor lead for each sensor electrode , each of which is electrically connected to a ground connection of a supply lead of a sensor electrode , - a measuring amplifier circuit for each sensor electrode each of which is connected to the additional sensor lead via an electrical resistor and is configured to detect a change in electric potential occurring on the sensor lead and to determine an electrode reference interference signal (I Ref,EL ) therefrom characterised in that the measuring amplifier circuit is electrically connected to the shield (S) of a supply lead of the sensor electrode . - an additional sensor lead for each sensor electrode , each of which is electrically connected to a ground connection of a supply lead of a sensor electrode , - a measuring amplifier circuit for each sensor electrode each of which is connected to the additional sensor lead via an electrical resistor and is configured to detect a change in electric potential occurring on the sensor lead and to determine an electrode reference interference signal (I Ref,EL ) therefrom characterised in that the measuring amplifier circuit is electrically connected to the shield (S) of a supply lead of the sensor electrode .
A method for manufacturing a motor vehicle roof incorporating a glazing, in which at least one opacifying layer of ink(s), in particular at least one layer of colored ink(s), is applied by digital printing, in particular by inkjet, over at least 40% of the surface of one of the faces of at least one glass sheet, such that the composition of said ink(s) comprises at least one glass frit, and where applicable one or more inorganic pigment(s), with a D90 value for the particle size distribution of less than 2 μm, and such that said ink(s) have a viscosity of between 1 and 50 mPa.s, said ink(s) further comprising a non-stick agent and/or a non-stick component and/or at least one non-stick agent and/or at least one non-stick layer being further applied to at least one layer of ink(s) and/or to at least one glass sheet.
A work vehicle comprising: a frame structure ; and a plurality of row units that respectively include: a ground system with at least one opener implement and at least one closing implement , the opener implement configured to create an opening in the ground as the work vehicle travels across a field, the closing implement configured to close the opening as the work vehicle travels across the field; a metering system including a metering element configured to singulate a commodity and meter out the commodity from the metering system ; a commodity delivery system configured to receive the commodity metered out from the metering system and deliver the commodity into the opening before the closing implement closes the opening ; and at least one air pressure device configured to generate an air pressure differential across the metering element to retain the commodity against the metering element of at least one of the plurality of row units to singulate the commodity, characterized in that the at least one air pressure device including an exhaust structure with a passage configured to direct exhaust toward the opening before the closing implement closes the opening as the row unit travels across the ground material. a frame structure ; and a plurality of row units that respectively include: a ground system with at least one opener implement and at least one closing implement , the opener implement configured to create an opening in the ground as the work vehicle travels across a field, the closing implement configured to close the opening as the work vehicle travels across the field; a metering system including a metering element configured to singulate a commodity and meter out the commodity from the metering system ; a commodity delivery system configured to receive the commodity metered out from the metering system and deliver the commodity into the opening before the closing implement closes the opening ; and at least one air pressure device configured to generate an air pressure differential across the metering element to retain the commodity against the metering element of at least one of the plurality of row units to singulate the commodity, a ground system with at least one opener implement and at least one closing implement , the opener implement configured to create an opening in the ground as the work vehicle travels across a field, the closing implement configured to close the opening as the work vehicle travels across the field; a metering system including a metering element configured to singulate a commodity and meter out the commodity from the metering system ; a commodity delivery system configured to receive the commodity metered out from the metering system and deliver the commodity into the opening before the closing implement closes the opening ; and at least one air pressure device configured to generate an air pressure differential across the metering element to retain the commodity against the metering element of at least one of the plurality of row units to singulate the commodity,
A ride-on saddle vehicle comprising a frame ; at least one rear drive wheel and at least one front steered wheel associated with a handlebar to control steering of the front steered wheel ; a dashboard with a first set of instruments, integrated with the handlebar ; an electronic control unit of the vehicle, connected to a plurality of electronic devices on board the vehicle ; a housing associated with the handlebar for a smartphone of a user of the vehicle; and an electronic interface adapted to interface the electronic control unit with a smartphone inserted in the housing ; wherein the electronic control unit is adapted to provide the smartphone , by means of said electronic interface, with information viewable by the user on the smartphone and relating to a plurality of functions of the vehicle; wherein the dashboard and the housing are placed on the handlebar of the vehicle and integral therewith a frame ; at least one rear drive wheel and at least one front steered wheel associated with a handlebar to control steering of the front steered wheel ; a dashboard with a first set of instruments, integrated with the handlebar ; an electronic control unit of the vehicle, connected to a plurality of electronic devices on board the vehicle ; a housing associated with the handlebar for a smartphone of a user of the vehicle; and an electronic interface adapted to interface the electronic control unit with a smartphone inserted in the housing ; wherein the electronic control unit is adapted to provide the smartphone , by means of said electronic interface, with information viewable by the user on the smartphone and relating to a plurality of functions of the vehicle;
A channel reservation method comprising: reducing contention of access to a shared radio medium of a network that is shared by a plurality of licensed network operators (105a-c) that have been assigned time priority access; and scheduling transmissions on the shared radio medium, wherein the reducing comprises: listening, by a second classified eNB , for a resource receiver signal, RRS, or a resource reservation request, RRQ, that was sent by a first classified eNB , and based at least on the listening, determining, by the second classified eNB , whether to send a transmission on the shared radio medium, and wherein the first classified eNB is assigned a higher priority as compared to the second classified eNB , when transmitting on the shared radio medium. reducing contention of access to a shared radio medium of a network that is shared by a plurality of licensed network operators (105a-c) that have been assigned time priority access; and scheduling transmissions on the shared radio medium, wherein the reducing comprises: listening, by a second classified eNB , for a resource receiver signal, RRS, or a resource reservation request, RRQ, that was sent by a first classified eNB , and based at least on the listening, determining, by the second classified eNB , whether to send a transmission on the shared radio medium, and wherein the first classified eNB is assigned a higher priority as compared to the second classified eNB , when transmitting on the shared radio medium. listening, by a second classified eNB , for a resource receiver signal, RRS, or a resource reservation request, RRQ, that was sent by a first classified eNB , and based at least on the listening, determining, by the second classified eNB , whether to send a transmission on the shared radio medium, and wherein the first classified eNB is assigned a higher priority as compared to the second classified eNB , when transmitting on the shared radio medium.
A 3D projection system , comprising: a first set of narrowband light sources each having a bandwidth of a laser light source; a second set of narrowband light sources each having a bandwidth of a laser light source; a projector configured to, modulate light from the first set of narrowband light sources to produce a first eye channel image of a 3D image, modulate light from the second set of narrowband light sources to produce a second eye channel image of the 3D image, and project the first eye channel image and the second eye channel image for display to a viewer; and 3D viewing glasses comprising passbands , wherein each passband comprises a narrowband passband intended to pass all wavelengths of the light from at least one of the projected narrowband light sources when viewed normally through the 3D viewing glasses characterized in that each passband further comprises an off-axis viewing passband , wherein the off-axis viewing passband comprises an area of the passband that is also intended to pass all wavelengths of the light from the at least one of the projected narrowband light sources when viewed under conditions causing the passband properties to shift due to off-axis viewing, wherein the narrowband passband is located within a blue or short-wavelength end section of the passband , and wherein the size of the off-axis viewing passband is sufficient to pass all wavelengths of the light from at least one of the projected narrowband light sources in a range of off-axis viewing angles that are encountered in the viewing environment. a first set of narrowband light sources each having a bandwidth of a laser light source; a second set of narrowband light sources each having a bandwidth of a laser light source; a projector configured to, modulate light from the first set of narrowband light sources to produce a first eye channel image of a 3D image, modulate light from the second set of narrowband light sources to produce a second eye channel image of the 3D image, and project the first eye channel image and the second eye channel image for display to a viewer; and 3D viewing glasses comprising passbands , wherein each passband comprises a narrowband passband intended to pass all wavelengths of the light from at least one of the projected narrowband light sources when viewed normally through the 3D viewing glasses
A vane arc segment comprising: an airfoil piece defining first and second platforms and an airfoil section extending between the first and second platforms , the airfoil section having a trailing edge , a leading edge , a pressure side , and a suction side , and the first and second platforms each defining first and second circumferential mate faces , forward and aft sides , a gaspath side , a non-gaspath side , and a radial flange projecting from the non-gaspath side , characterized in that : each said radial flange extends continuously and includes a first leg portion extending adjacent the trailing edge , a second leg portion extending from the first leg portion and curving around the suction side , and a third leg portion extending from the second leg portion toward the forward side . an airfoil piece defining first and second platforms and an airfoil section extending between the first and second platforms , the airfoil section having a trailing edge , a leading edge , a pressure side , and a suction side , and the first and second platforms each defining first and second circumferential mate faces , forward and aft sides , a gaspath side , a non-gaspath side , and a radial flange projecting from the non-gaspath side ,
A method for estimating an actual light profile for an individual , wherein the actual light profile comprises spectrally resolved information associated with an accumulated amount of light that the individual has been exposed to during a previous time period, the method comprising: exposing (S200) the individual to a predetermined light stimuli using a lighting system , wherein the act of exposing (S200) the individual to a predetermined light stimuli comprises: varying (S206) over time at least one of an intensity and a spectral distribution of light emitted by the lighting system ; sensing (S202) a body response of the individual in response to the predetermined light stimuli , wherein the act of sensing (S202) a body response of the individual in response to the predetermined light stimuli comprises sensing (S208) a variation over time of one or more of: a body temperature, a skin color, a heart rate, a heart rate variation, a blood pressure, a respiration rate, and a melatonin level; and wherein the method further comprises: estimating (S204) the actual light profile based on the sensed body response of the individual and the predetermined light stimuli, wherein the act of estimating (S204) the actual light profile comprises inputting (S212) data pertaining to the body response of the individual and data pertaining to the predetermined light stimuli into a machine learning model trained to correlate body responses of individuals and light stimuli to actual light profiles. exposing (S200) the individual to a predetermined light stimuli using a lighting system , wherein the act of exposing (S200) the individual to a predetermined light stimuli comprises: varying (S206) over time at least one of an intensity and a spectral distribution of light emitted by the lighting system ; sensing (S202) a body response of the individual in response to the predetermined light stimuli , wherein the act of sensing (S202) a body response of the individual in response to the predetermined light stimuli comprises sensing (S208) a variation over time of one or more of: a body temperature, a skin color, a heart rate, a heart rate variation, a blood pressure, a respiration rate, and a melatonin level; and wherein the method further comprises: estimating (S204) the actual light profile based on the sensed body response of the individual and the predetermined light stimuli, wherein the act of estimating (S204) the actual light profile comprises inputting (S212) data pertaining to the body response of the individual and data pertaining to the predetermined light stimuli into a machine learning model trained to correlate body responses of individuals and light stimuli to actual light profiles.
A linear detector element for an overheat condition sensing system , including: an outer sheath having a first end and a second end ; one or more shape memory responsive elements within the outer sheath and between the first end and the second end; and first and second conductive wires passing through at least a portion of the outer sheath and through the one or more shape memory responsive elements; wherein the one more shape memory responsive elements include a shape memory actuator surrounding the first and second conductive wires and that has an expanded state and a contracted state and that is sized and arranged such that when the shape memory actuator is in the contracted state the first and second conductive wires contact one another and when the shape memory actuator is in the expanded state the first and second conductive wires do not contact one another; characterised in that the outer sheath and the one or more shape memory responsive elements have a rectangular cross sectional shape. an outer sheath having a first end and a second end ; one or more shape memory responsive elements within the outer sheath and between the first end and the second end; and first and second conductive wires passing through at least a portion of the outer sheath and through the one or more shape memory responsive elements; wherein the one more shape memory responsive elements include a shape memory actuator surrounding the first and second conductive wires and that has an expanded state and a contracted state and that is sized and arranged such that when the shape memory actuator is in the contracted state the first and second conductive wires contact one another and when the shape memory actuator is in the expanded state the first and second conductive wires do not contact one another; characterised in that the outer sheath and the one or more shape memory responsive elements have a rectangular cross sectional shape.
Breast shield unit of a breast pump for expressing human breastmilk, the breast shield unit comprising a breast shield to be placed onto a mother's breast, a breastmilk collection container for receiving expressed breastmilk, an adapter for connecting the breast shield to the breastmilk collection container and a valve head , with a breastmilk channel extending from the breast shield into the breastmilk collection container through the adapter and the valve head , and the valve head comprising a valve , said valve closing and opening the breastmilk channel during the pumping action, wherein a fill level sensor for measuring a fill level of the breastmilk collection container is arranged in the valve head and characterized in that the fill level sensor is a distance sensor for measuring a distance from a surface of the expressed breastmilk situated in the breastmilk collection container .