mhurhangee/patent-ind-claim-en huggingface dataset:
Sensor for the optical detection of a substance in the plasma fraction of a whole blood sample , the sensor comprising - a translucent slab with a front side and a back side facing away from the front side , wherein the front side is adapted for being contacted with a whole blood sample , wherein the translucent slab comprises pores ; - a reflective layer at the front side of the translucent slab , the reflective layer being adapted to reflect light reaching the reflective layer from the translucent slab ; and - a light source and a detector configured for optically probing the translucent slab , wherein the light source is adapted to illuminate at least the pores in the translucent slab , wherein the detector is arranged to receive light emerging from the pores in response to an illumination by the light source , and wherein the detector is adapted to generate a signal representative of the detected light; wherein the pores in the translucent slab are dead-end pores extending from respective openings at the front side , through the reflective layer into the translucent slab , wherein a cross-sectional dimension of the openings of the pores is dimensioned so as to prevent red blood cells from entering the pores, while allowing the substance in the plasma fraction of the whole blood sample to enter the pores ; characterized in that an inner wall surface of the pores is coated with a hydrophilic coating. - a translucent slab with a front side and a back side facing away from the front side , wherein the front side is adapted for being contacted with a whole blood sample , wherein the translucent slab comprises pores ; - a reflective layer at the front side of the translucent slab , the reflective layer being adapted to reflect light reaching the reflective layer from the translucent slab ; and - a light source and a detector configured for optically probing the translucent slab , wherein the light source is adapted to illuminate at least the pores in the translucent slab , wherein the detector is arranged to receive light emerging from the pores in response to an illumination by the light source , and wherein the detector is adapted to generate a signal representative of the detected light;
Fire training installation with a fire chamber , and a fire unit which is arranged in the fire chamber for the combustion of gas, the fire chamber being delimited by a plurality of refractory walls, the fire unit being connected to a gas supply unit , and the gas supply unit providing liquid gas and gaseous gas, characterized in that the fire unit has a first outlet for gaseous gas from the gas supply unit and a second outlet for liquid gas from the gas supply unit , and the fire chamber has at least one opening in a bottom wall of the fire chamber within a predefined radius (R1) around the fire unit , the at least one opening in the bottom wall of the fire chamber leading into a surrounding area outside the fire chamber, leg elements which protrude on the outer side beyond the bottom wall of the fire chamber being provided, the leg elements ensuring that the underside of the fire chamber is spaced apart from a floor, on which the fire chamber stands by way of the leg elements , and the leg elements keeping the fire chamber at a spacing from the floor in such a way that the liquid gas which passes into the surrounding area is swept away by natural wind and/or by way of an artificially generated wind, in order to be transported away from the fire chamber . a fire chamber , and a fire unit which is arranged in the fire chamber for the combustion of gas, the fire chamber being delimited by a plurality of refractory walls, the fire unit being connected to a gas supply unit , and the gas supply unit providing liquid gas and gaseous gas, characterized in that the fire unit has a first outlet for gaseous gas from the gas supply unit and a second outlet for liquid gas from the gas supply unit , and the fire chamber has at least one opening in a bottom wall of the fire chamber within a predefined radius (R1) around the fire unit , the at least one opening in the bottom wall of the fire chamber leading into a surrounding area outside the fire chamber, leg elements which protrude on the outer side beyond the bottom wall of the fire chamber being provided, the leg elements ensuring that the underside of the fire chamber is spaced apart from a floor, on which the fire chamber stands by way of the leg elements , and the leg elements keeping the fire chamber at a spacing from the floor in such a way that the liquid gas which passes into the surrounding area is swept away by natural wind and/or by way of an artificially generated wind, in order to be transported away from the fire chamber .
A composition comprising: i) 1,1-difluoroethene (vinylidene fluoride, R-1132a); ii) trifluoromethane (R-23); and iii) 1% by weight to 45% by weight carbon dioxide (R-744, CO 2 ). i) 1,1-difluoroethene (vinylidene fluoride, R-1132a); ii) trifluoromethane (R-23); and iii) 1% by weight to 45% by weight carbon dioxide (R-744, CO 2 ).
A composition for preserving umbilical cord mesenchymal stem cells (UCMSCs), adipose-derived mesenchymal stem cells(ADMSCs), bone marrow-derived mesenchymal stem cells(BMMSCs) or Human diploid fibroblast(HDF) containing, as active ingredient(s), a plant-derived recombinant human serum albumin and a plant peptide, wherein the plant-derived recombinant human serum albumin being contained at 0.5-5 parts by weight, the plant peptide being contained at 1-5 parts by weight, on the basis of the total 100 parts by weight of the composition, wherein the plant-derived recombinant human serum albumin and the plant peptide were mixed with a basal medium not containing Phenol Red, wherein the plant-derived recombinant human serum albumin is extracted from rice, wherein the plant peptide is derived from soybean, wherein an amino acid composition of the plant peptide is 475 mg/L of Ala, 750 mg/L of Arg, 1275 mg/L of Asp, 317 mg/L of Glu, 550 mg/L of Gly, 250 mg/L of His, 600 mg/L of Ile, 1000 mg/L of Lys, 200 mg/L of Met, , 625 mg/L of Phe, 525 mg/L of Pro, 725 mg/L of Ser, 600 mg/L of Thr, 400 mg/L of Tyr, and 1800 mg/L of Val, wherein the composition further comprises inorganic salts at the following concentrations wherein the composition comprises amino acids at the following concentrations wherein the composition comprises vitamins at the following concentrations wherein the composition comprises nucleosides at the following concentrations wherein the composition comprises other ingredients at the following concentrations wherein the composition is xeno-free and animal-free. wherein the plant-derived recombinant human serum albumin being contained at 0.5-5 parts by weight, the plant peptide being contained at 1-5 parts by weight, on the basis of the total 100 parts by weight of the composition, wherein the plant-derived recombinant human serum albumin and the plant peptide were mixed with a basal medium not containing Phenol Red, wherein the plant-derived recombinant human serum albumin is extracted from rice, wherein the plant peptide is derived from soybean, wherein an amino acid composition of the plant peptide is 475 mg/L of Ala, 750 mg/L of Arg, 1275 mg/L of Asp, 317 mg/L of Glu, 550 mg/L of Gly, 250 mg/L of His, 600 mg/L of Ile, 1000 mg/L of Lys, 200 mg/L of Met, , 625 mg/L of Phe, 525 mg/L of Pro, 725 mg/L of Ser, 600 mg/L of Thr, 400 mg/L of Tyr, and 1800 mg/L of Val, wherein the composition further comprises inorganic salts at the following concentrations wherein the composition comprises amino acids at the following concentrations wherein the composition comprises vitamins at the following concentrations wherein the composition comprises nucleosides at the following concentrations wherein the composition comprises other ingredients at the following concentrations wherein the composition is xeno-free and animal-free.
A quantum dot, comprising a core comprising a first semiconductor nanocrystal; a first shell comprising a second semiconductor nanocrystal comprising a Group III-VI compound disposed on the core; and a second shell comprising a third semiconductor nanocrystal having a composition different from that of the second semiconductor nanocrystal on the first shell; wherein one of the first semiconductor nanocrystal and the third semiconductor nanocrystal comprises a Group III-V compound including InP, GaP, InAs, GaAs, InSb, GaSb, InGaP, InAsP, InSbP, InGaAs, InZnP, GaZnP, InZnAs or a combination thereof and the other comprises a Group II-VI compound comprising ZnSe, ZnTeSe, ZnSeS, ZnTeS, ZnS, or a combination thereof. a core comprising a first semiconductor nanocrystal; a first shell comprising a second semiconductor nanocrystal comprising a Group III-VI compound disposed on the core; and a second shell comprising a third semiconductor nanocrystal having a composition different from that of the second semiconductor nanocrystal on the first shell; wherein one of the first semiconductor nanocrystal and the third semiconductor nanocrystal comprises a Group III-V compound including InP, GaP, InAs, GaAs, InSb, GaSb, InGaP, InAsP, InSbP, InGaAs, InZnP, GaZnP, InZnAs or a combination thereof and the other comprises a Group II-VI compound comprising ZnSe, ZnTeSe, ZnSeS, ZnTeS, ZnS, or a combination thereof.
An occupant support structure for supporting an occupant comprising: an orientation adjustable torso section ; a lower body section including a heel region subsection adapted to support the heel region of an occupant of the occupant support; and a control system adapted to: A) cause the heel region subsection to temporarily substantially disengage from the heel region of the occupant in response to a change of angular orientation of the torso section which begins at a time t 0 ; and B) cause the heel region subsection to subsequently re-engage with the heel region of the occupant, the re-engagement occurring at a time t B which is later than t 0 : characterized in that the control system is adapted to cause the temporary substantial disengagement and the subsequent re-engagement only if the angular orientation of the torso section changes. an orientation adjustable torso section ; a lower body section including a heel region subsection adapted to support the heel region of an occupant of the occupant support; and a control system adapted to: A) cause the heel region subsection to temporarily substantially disengage from the heel region of the occupant in response to a change of angular orientation of the torso section which begins at a time t 0 ; and B) cause the heel region subsection to subsequently re-engage with the heel region of the occupant, the re-engagement occurring at a time t B which is later than t 0 : characterized in that the control system is adapted to cause the temporary substantial disengagement and the subsequent re-engagement only if the angular orientation of the torso section changes. A) cause the heel region subsection to temporarily substantially disengage from the heel region of the occupant in response to a change of angular orientation of the torso section which begins at a time t 0 ; and B) cause the heel region subsection to subsequently re-engage with the heel region of the occupant, the re-engagement occurring at a time t B which is later than t 0 :
A method comprising: (a) providing , on-board a mass transit vehicle, MTV, at least one unmanned aerial vehicle, UAV, (10, 10-1, 10-2) each UAV including a controller comprising a processor and memory ; (b) determining , by the controller of the UAV while on-board the MTV in a tunnel , at least one of the following: an acceleration, positive or negative, greater than a predetermined acceleration, an angle, positive or negative, greater than a predetermined angle, a temperature greater than a predetermined temperature, and the presence of particles, gas or both greater than a predetermined concentration; (c) in response to the determining in step (b), the UAV separating from the MTV and becoming airborne within the tunnel ; and (d) following step (c), executing , by the UAV, flight movement of the UAV within the tunnel. (a) providing , on-board a mass transit vehicle, MTV, at least one unmanned aerial vehicle, UAV, (10, 10-1, 10-2) each UAV including a controller comprising a processor and memory ; (b) determining , by the controller of the UAV while on-board the MTV in a tunnel , at least one of the following: an acceleration, positive or negative, greater than a predetermined acceleration, an angle, positive or negative, greater than a predetermined angle, a temperature greater than a predetermined temperature, and the presence of particles, gas or both greater than a predetermined concentration; an acceleration, positive or negative, greater than a predetermined acceleration, an angle, positive or negative, greater than a predetermined angle, a temperature greater than a predetermined temperature, and the presence of particles, gas or both greater than a predetermined concentration; (c) in response to the determining in step (b), the UAV separating from the MTV and becoming airborne within the tunnel ; and (d) following step (c), executing , by the UAV, flight movement of the UAV within the tunnel.
A device comprising: a membrane that includes one or more layers of an electrically resistive material; a film disposed along a surface of the membrane to form a coil, wherein the film includes one or more layers of an electrically conductive material; a support structure coupled to a periphery of the membrane ; a magnet arranged to provide a magnetic field that is substantially parallel to the surface of the membrane ; and a signal conditioner to provide an electrical signal to the coil to generate an electrical current flowing through the coil, wherein the electrical current interacts with the magnetic field to cause a vibration of the membrane , and wherein characteristics of the vibration are based on at least the electrical signal provided by the signal conditioner , characterized in that the electrically resistive material of the membrane includes a boron-nitride (BN) sheet and/or the electrically conductive material of the film includes a graphene sheet. a membrane that includes one or more layers of an electrically resistive material; a film disposed along a surface of the membrane to form a coil, wherein the film includes one or more layers of an electrically conductive material; a support structure coupled to a periphery of the membrane ; a magnet arranged to provide a magnetic field that is substantially parallel to the surface of the membrane ; and a signal conditioner to provide an electrical signal to the coil to generate an electrical current flowing through the coil, wherein the electrical current interacts with the magnetic field to cause a vibration of the membrane , and wherein characteristics of the vibration are based on at least the electrical signal provided by the signal conditioner , characterized in that the electrically resistive material of the membrane includes a boron-nitride (BN) sheet and/or the electrically conductive material of the film includes a graphene sheet.
Process for making solid methylglycine diacetate (MGDA) alkali metal salt (a), said process comprising the steps of (A) providing a 35 to 60% by weight aqueous solution of said MGDA salt having a temperature in the range of from 50 to 90°C, (B) adding 0.01 to 2% by weight of a particulate solid with a pore volume in the range of from 0.25 to 0.75 cm 3 /g, determined by nitrogen adsorption in accordance with DIN 66134:1998-02 (b), the percentage referring to the content of (a), (C) crystallizing (a), (D) removing said crystalline (a) from the mother liquor. (A) providing a 35 to 60% by weight aqueous solution of said MGDA salt having a temperature in the range of from 50 to 90°C, (B) adding 0.01 to 2% by weight of a particulate solid with a pore volume in the range of from 0.25 to 0.75 cm 3 /g, determined by nitrogen adsorption in accordance with DIN 66134:1998-02 (b), the percentage referring to the content of (a), (C) crystallizing (a), (D) removing said crystalline (a) from the mother liquor.
A matrix headlamp control apparatus for controlling a brightness of a headlamp comprising a matrix of light-emitting diodes, LEDs, consisting of LED groups of light-emitting diodes, the matrix headlamp control apparatus comprising: a plurality of LED controller integrated circuits, ICs , said plurality including one LED controller IC configured as a Master LED controller IC (2-7) and the remaining LED controller ICs configured as Slave LED controller ICs (2-0 to 2-6), wherein each LED controller integrated circuit IC (2-i) is adapted to control an associated LED group, characterized in that each LED controller IC (2-i) is adapted to supply a PWM signal to the respective LED group and the Master LED controller IC is adapted to generate a PWM synchronization signal (PWM sync ) and to apply the generated PWM synchronization signal (PWM sync ) to the Slave LED controller ICs to synchronize frequency and phase of all pulse width modulated, PWM, signals. a plurality of LED controller integrated circuits, ICs , said plurality including one LED controller IC configured as a Master LED controller IC (2-7) and the remaining LED controller ICs configured as Slave LED controller ICs (2-0 to 2-6), wherein each LED controller integrated circuit IC (2-i) is adapted to control an associated LED group, characterized in that each LED controller IC (2-i) is adapted to supply a PWM signal to the respective LED group and the Master LED controller IC is adapted to generate a PWM synchronization signal (PWM sync ) and to apply the generated PWM synchronization signal (PWM sync ) to the Slave LED controller ICs to synchronize frequency and phase of all pulse width modulated, PWM, signals.
A method for use in providing wireless communication comprising: selecting a pilot beam configuration for wireless communication, wherein the pilot beam configuration uses at least two beams; selecting a beam weighting control; the method being characterized by : receiving , from a single wireless device, n number of reverse link beams where n ≥ 2; determining n-1 gain energy ratios α i , for i = 1 to n-1, where α 0 =1, α n-1 = ∥f n ∥ 2 /∥f 1 ∥ 2 , and where f is the gain energy; determining weighting b i to be applied in generation of at least one of n number of forward link beams according to: b i = α i − 1 2 1 + ∑ j = 1 n − 1 α j 2 . selecting a pilot beam configuration for wireless communication, wherein the pilot beam configuration uses at least two beams; selecting a beam weighting control; the method being characterized by : receiving , from a single wireless device, n number of reverse link beams where n ≥ 2; determining n-1 gain energy ratios α i , for i = 1 to n-1, where α 0 =1, α n-1 = ∥f n ∥ 2 /∥f 1 ∥ 2 , and where f is the gain energy; determining weighting b i to be applied in generation of at least one of n number of forward link beams according to: b i = α i − 1 2 1 + ∑ j = 1 n − 1 α j 2 .
Slat intended to form part of the roof of a covering, for example a pergola, comprising a metal body which comprises at least one face , characterized in that this face is coated with a polymer film , wherein the metal body is provided with a coating layer onto which the polymer film is bonded.
A plant cultivation container formed as an integral container preferably of a quadrangular shape and consisting of four walls 2, 3 and a bottom 6 provided with grooves 7 with holes, characterised in that the container includes at least one pull-out tray 9, wherein the tray 9 consists of a bottom 10, two side walls 11, 11', a rear wall 11" and a front wall 11'" which is detachably attachable to the tray 9, and all walls 2, 3 of the container 1 are provided along their heights with horizontal notches 16 and vertical notches 17 for receiving the pull-out trays, wherein the notches 16, 17 are dimensioned in a way that, when the trays 9 are inserted into the notches 16, 17, the latter adapt to the thickness and height of the side walls 11, 11' and the bottom 10 of the pull-out tray 9.
A method for orchestrating the execution of a plurality of mechanisms by one or more nodes in a wireless network during a time period for executing a mechanism orchestration strategy, characterised in that the method comprises the steps of - receiving at least one target value of a service quality indicator; - determining an initial strategy for orchestrating mechanisms which define a minimum number of mechanisms and a minimum number of resources per node; - executing said initial mechanism orchestration strategy by the one or more nodes; - receiving end-to-end latency data; - determining a statistical distribution of the end-to-end latency from said data; - determining a number of state classes of the network using said statistical distribution of the end-to-end latency; - determining a time threshold and a trust level in association with each state class of the network from said statistical distribution of the end-to-end latency; - determining a current strategy for orchestrating mechanisms which defines a combination of mechanisms and a number of resources in association with each node taking into account said number of state classes of the network and the time thresholds associated with said state classes of the network and as a function of said time period for executing the mechanism orchestration strategy; - executing said current mechanism orchestration strategy by means of said one or more nodes of the network, taking into account the communication status of each node. - receiving at least one target value of a service quality indicator; - determining an initial strategy for orchestrating mechanisms which define a minimum number of mechanisms and a minimum number of resources per node; - executing said initial mechanism orchestration strategy by the one or more nodes; - receiving end-to-end latency data; - determining a statistical distribution of the end-to-end latency from said data; - determining a number of state classes of the network using said statistical distribution of the end-to-end latency; - determining a time threshold and a trust level in association with each state class of the network from said statistical distribution of the end-to-end latency; - determining a current strategy for orchestrating mechanisms which defines a combination of mechanisms and a number of resources in association with each node taking into account said number of state classes of the network and the time thresholds associated with said state classes of the network and as a function of said time period for executing the mechanism orchestration strategy; - executing said current mechanism orchestration strategy by means of said one or more nodes of the network, taking into account the communication status of each node.