mhurhangee/patent-ind-claim-en huggingface dataset:
A device for measuring oxygen saturation, the device comprising circuitry (110; 214, 245) configured to: measure a first diode voltage at a light emitting diode (160; 260; 460A, 460B) while applying a first current through the light emitting diode (160; 260; 460A, 460B); measure a second diode voltage at the light emitting diode (160; 260; 460A, 460B) while applying a second current through the light emitting diode (160; 260; 460A, 460B); measure a third diode voltage at the light emitting diode (160; 260; 460A, 460B) while applying a third current through the light emitting diode (160; 260; 460A, 460B); determine a series resistance for the light emitting diode (160; 260; 460A, 460B) based on the first diode voltage, the second diode voltage, and the third diode voltage; determine an intensity of a received photonic signal corresponding to an output photonic signal output using the light emitting diode (160; 260; 460A, 460B); determine an oxygen saturation level based on the intensity of the received photonic signal and the series resistance; and output an indication of the oxygen saturation level, wherein the circuitry (110; 214, 245) is configured to determine that the light emitting diode (160; 260; 460A, 460B) is valid based on the series resistance, and wherein the determination of the intensity of the received photonic signal is in response to the determination that the light emitting diode (160; 260; 460A, 460B) is valid. measure a first diode voltage at a light emitting diode (160; 260; 460A, 460B) while applying a first current through the light emitting diode (160; 260; 460A, 460B); measure a second diode voltage at the light emitting diode (160; 260; 460A, 460B) while applying a second current through the light emitting diode (160; 260; 460A, 460B); measure a third diode voltage at the light emitting diode (160; 260; 460A, 460B) while applying a third current through the light emitting diode (160; 260; 460A, 460B); determine a series resistance for the light emitting diode (160; 260; 460A, 460B) based on the first diode voltage, the second diode voltage, and the third diode voltage; determine an intensity of a received photonic signal corresponding to an output photonic signal output using the light emitting diode (160; 260; 460A, 460B); determine an oxygen saturation level based on the intensity of the received photonic signal and the series resistance; and output an indication of the oxygen saturation level, wherein the circuitry (110; 214, 245) is configured to determine that the light emitting diode (160; 260; 460A, 460B) is valid based on the series resistance, and wherein the determination of the intensity of the received photonic signal is in response to the determination that the light emitting diode (160; 260; 460A, 460B) is valid.
A sealing material comprising a cross-linked fluororubber layer obtainable by cross-linking a fluororubber composition containing (i) a fluororubber (A) which is at least one selected from vinylidene fluoride (VdF) fluororubber, tetrafluoroethylene (TFE)/propylene (Pr) rubber, and TFE/Pr/VdF rubber; and (ii) 5-50 parts by mass, per 100 parts by mass of the fluororubber (A), of a carbon black (B) with a nitrogen adsorption specific surface area (N 2 SA) of 50-180 m 2 /g and a dibutyl phthalate (DBP) oil absorption of 50-180 ml/100 g, the cross-linked fluororubber layer having a loss modulus E" of 600-6,000 kPa, determined by a dynamic viscoelasticity test at 160°C, 1% tensile strain, 157 cN initial force and a frequency of 10 Hz. (i) a fluororubber (A) which is at least one selected from vinylidene fluoride (VdF) fluororubber, tetrafluoroethylene (TFE)/propylene (Pr) rubber, and TFE/Pr/VdF rubber; and (ii) 5-50 parts by mass, per 100 parts by mass of the fluororubber (A), of a carbon black (B) with a nitrogen adsorption specific surface area (N 2 SA) of 50-180 m 2 /g and a dibutyl phthalate (DBP) oil absorption of 50-180 ml/100 g,
An apparatus for adjusting air interface capacity density, comprising: a determining module , configured to determine whether a target physical cell whose air interface capacity density needs to be increased or to be reduced exists in a logical cell, wherein the logical cell comprises one or more physical cells, each physical cell comprises a group of pico radio remote units, pRRUs, and one physical cell corresponds to one baseband tributary, wherein the air interface capacity density is an air interface capacity per area unit in a physical cell, wherein the logical cell is a single frequency network, SFN, cell; and an adjusting module , configured to: when the determining result of the determining module is that a target physical cell whose air interface capacity density needs to be increased exists in the logical cell, increase the air interface capacity density of the target physical cell by reducing a quantity of pRRUs in the target physical cell and when the determining result of the determining module is that a target physical cell whose air interface capacity density needs to be reduced exists in the logical cell, reduce the air interface capacity density of the target physical cell by increasing a quantity of pRRUs in the target physical cell. a determining module , configured to determine whether a target physical cell whose air interface capacity density needs to be increased or to be reduced exists in a logical cell, wherein the logical cell comprises one or more physical cells, each physical cell comprises a group of pico radio remote units, pRRUs, and one physical cell corresponds to one baseband tributary, wherein the air interface capacity density is an air interface capacity per area unit in a physical cell, wherein the logical cell is a single frequency network, SFN, cell; and an adjusting module , configured to: when the determining result of the determining module is that a target physical cell whose air interface capacity density needs to be increased exists in the logical cell, increase the air interface capacity density of the target physical cell by reducing a quantity of pRRUs in the target physical cell and when the determining result of the determining module is that a target physical cell whose air interface capacity density needs to be reduced exists in the logical cell, reduce the air interface capacity density of the target physical cell by increasing a quantity of pRRUs in the target physical cell. when the determining result of the determining module is that a target physical cell whose air interface capacity density needs to be increased exists in the logical cell, increase the air interface capacity density of the target physical cell by reducing a quantity of pRRUs in the target physical cell and when the determining result of the determining module is that a target physical cell whose air interface capacity density needs to be reduced exists in the logical cell, reduce the air interface capacity density of the target physical cell by increasing a quantity of pRRUs in the target physical cell.
A packaging system for a multi-component product preparation, comprising - a first container for holding a first product preparation component, - a second container for holding at least one second product preparation component, and - a closure element which sealingly closes the first container with respect to the surroundings and comprises a coupling device in order to couple the second container to the closure element and to establish a fluid connection between the first container and the second container , characterized in that the closure element has a closure cap which can be separated from the closure element along a predetermined breaking point in order to release the fluid connection between the first container and the second container , it being possible for the closure cap to be coupled to the second container so as to be blocked in a direction of rotation about an axis (L) of the closure element and said closure cap comprising a thread by means of which the closure cap can be connected to the first container via a corresponding thread of the first container . - a first container for holding a first product preparation component, - a second container for holding at least one second product preparation component, and - a closure element which sealingly closes the first container with respect to the surroundings and comprises a coupling device in order to couple the second container to the closure element and to establish a fluid connection between the first container and the second container , the closure element has a closure cap which can be separated from the closure element along a predetermined breaking point in order to release the fluid connection between the first container and the second container , it being possible for the closure cap to be coupled to the second container so as to be blocked in a direction of rotation about an axis (L) of the closure element and said closure cap comprising a thread by means of which the closure cap can be connected to the first container via a corresponding thread of the first container .
A method for the production of a foam moulded part comprising at least step (W1): (W1) bringing into contact expanded foam particles having a composition containing at least the components (A) to (D): (A) a mineral flame retardant; (B) an addition product or condensation product of melamine and an aldehyde, preferably formaldehyde, or urea and an aldehyde, preferably formaldehyde, or a mixture thereof; (C) a hardener for the addition product or condensation product (B); (D) water; wherein a weight ratio (A) : (B) lies in the range of 1 : 0.8 to 1 : 2 and a weight ratio (B) : (C) lies in the range of 20 : 1 to 10 : 1; and further comprising step (W2): (W2) removal of water from the expanded foam particles as obtained in step (W1); wherein the sequence of steps (W1) and (W2) is performed once or also multiple times. (W1) bringing into contact expanded foam particles having a composition containing at least the components (A) to (D): (A) a mineral flame retardant; (B) an addition product or condensation product of melamine and an aldehyde, preferably formaldehyde, or urea and an aldehyde, preferably formaldehyde, or a mixture thereof; (C) a hardener for the addition product or condensation product (B); (D) water; (A) a mineral flame retardant; (B) an addition product or condensation product of melamine and an aldehyde, preferably formaldehyde, or urea and an aldehyde, preferably formaldehyde, or a mixture thereof; (C) a hardener for the addition product or condensation product (B); (D) water; wherein a weight ratio (A) : (B) lies in the range of 1 : 0.8 to 1 : 2 and a weight ratio (B) : (C) lies in the range of 20 : 1 to 10 : 1; and further comprising step (W2): (W2) removal of water from the expanded foam particles as obtained in step (W1); wherein the sequence of steps (W1) and (W2) is performed once or also multiple times. (W2) removal of water from the expanded foam particles as obtained in step (W1); wherein the sequence of steps (W1) and (W2) is performed once or also multiple times.
A finishing device , comprising: a tray to receive print media sheets ; and a paddle roller to rotate about an axis and move individual print media sheets of the print media sheets to abut an end register of the tray and form a stack of print media sheets, wherein the paddle roller is to rotate a first quantity of rotations per print media sheet in response to a determination that the stack of print media sheets corresponds to a first height (214-1), characterized in that the paddle roller is to rotate a second quantity of rotations per print media sheet in response to a determination that the stack of print media sheets corresponds to a second height (214-2) greater than the first height, the second quantity of rotations being larger than the first quantity of rotations. a tray to receive print media sheets ; and a paddle roller to rotate about an axis and move individual print media sheets of the print media sheets to abut an end register of the tray and form a stack of print media sheets, wherein the paddle roller is to rotate a first quantity of rotations per print media sheet in response to a determination that the stack of print media sheets corresponds to a first height (214-1),
A Janus microparticle having, a center-of-mass, a center-of-volume, and a non-uniform density, wherein the center-of-mass and the center-of-volume are distinct, and wherein when the Janus microparticle is suspended in a fluid the Janus microparticle substantially aligns with the gravitational field such that the Janus microparticle is in substantial rotational equilibrium and after perturbation from substantial rotational equilibrium, the Janus microparticle reversibly rotates to return to substantial rotational equilibrium, wherein the Janus particle rotates with a maximum rotational velocity between 5 deg/s and 400 deg/s when exposed to gravitational acceleration of 9.8 m/s 2 , and the fluid has a viscosity between 1 mPa*s and 20 mPa*s.
Device for storing energy, comprising - a storage space comprising an energy storage material ; - a number of individual tubes arranged in the energy storage material , wherein the number of tubes is provided with a separate opening ; - at least one heat storage element comprising an electric heating element which is arranged in at least one of the tubes for the purpose of heating the energy storage material ; and - at least one heat extraction element comprising a heat exchanger which comprises a conduit provided with an inner space , wherein the inner space is configured for throughfeed of a fluid for the purpose of extracting heat from the energy storage material , wherein the at least one heat storage element is removable from the opening of the number of tubes , characterised in that the at least one heat extraction element is arranged in at least one of the tubes , and wherein the at least one heat extraction element is removable from the opening of the at least one tube . - a storage space comprising an energy storage material ; - a number of individual tubes arranged in the energy storage material , wherein the number of tubes is provided with a separate opening ; - at least one heat storage element comprising an electric heating element which is arranged in at least one of the tubes for the purpose of heating the energy storage material ; and - at least one heat extraction element comprising a heat exchanger which comprises a conduit provided with an inner space , wherein the inner space is configured for throughfeed of a fluid for the purpose of extracting heat from the energy storage material , wherein the at least one heat storage element is removable from the opening of the number of tubes , characterised in that the at least one heat extraction element is arranged in at least one of the tubes , and wherein the at least one heat extraction element is removable from the opening of the at least one tube .
A data transmission method, wherein the method comprises: receiving (S200, S402) a plurality of first optical signals from a respective plurality of input ports; converting (S202, S404), according to a correspondence between an input port of an optical signal and a mode group, the received plurality of first optical signals into a respective plurality of second optical signals each of the second optical signals comprising one or more modes in a mode group corresponding to its respective input port; and multiplexing (S204) the plurality of second optical signals into an output multimode optical fiber for transmission; wherein each of the first optical signals is an optical signal in multiple modes; wherein the plurality of first optical signals is received from a respective plurality of input multimode fibers, the plurality of input multimode fibers being coupled to a respective plurality of transmitters; wherein the plurality of transmitters excite respective optical signals in multiple modes such that the plurality of first optical signals are transmitted in the plurality of input multimode fibers. receiving (S200, S402) a plurality of first optical signals from a respective plurality of input ports; converting (S202, S404), according to a correspondence between an input port of an optical signal and a mode group, the received plurality of first optical signals into a respective plurality of second optical signals each of the second optical signals comprising one or more modes in a mode group corresponding to its respective input port; and multiplexing (S204) the plurality of second optical signals into an output multimode optical fiber for transmission; wherein each of the first optical signals is an optical signal in multiple modes; wherein the plurality of first optical signals is received from a respective plurality of input multimode fibers, the plurality of input multimode fibers being coupled to a respective plurality of transmitters; wherein the plurality of transmitters excite respective optical signals in multiple modes such that the plurality of first optical signals are transmitted in the plurality of input multimode fibers.
A lighting system, comprising: a housing which comprises a support structure and a light exit window for emitting light to the ambient surroundings of the lighting system, the housing defining a mixing chamber having a top part and a bottom part, the mixing chamber comprising one or more side wall portions and a top wall portion which forms the top part, the light exit window being provided at the bottom part; an arrangement of UV LEDs mounted on the support structure ; an arrangement of visible light LEDs mounted on the support structure ; and a reflector arrangement , wherein the visible light LEDs face the reflector arrangement , and the reflector arrangement is for reflecting the visible light output from the visible light LEDs to the exit window , wherein the UV LEDs are provided at the top part facing the light exit window , characterized in that the visible light LEDs are mounted: (i) on a rim around the light exit window facing into the mixing chamber and facing the top part, directly or at an angle, (ii) on the one or more side wall portions facing across the mixing chamber, or (iii) at the top part facing in the direction of the light exit window , the reflector arrangement comprising reflector portions over the visible light LEDs to block the light path to the light exit window . a housing which comprises a support structure and a light exit window for emitting light to the ambient surroundings of the lighting system, the housing defining a mixing chamber having a top part and a bottom part, the mixing chamber comprising one or more side wall portions and a top wall portion which forms the top part, the light exit window being provided at the bottom part; an arrangement of UV LEDs mounted on the support structure ; an arrangement of visible light LEDs mounted on the support structure ; and a reflector arrangement , wherein the visible light LEDs face the reflector arrangement , and the reflector arrangement is for reflecting the visible light output from the visible light LEDs to the exit window , wherein the UV LEDs are provided at the top part facing the light exit window , characterized in that the visible light LEDs are mounted: (i) on a rim around the light exit window facing into the mixing chamber and facing the top part, directly or at an angle, (ii) on the one or more side wall portions facing across the mixing chamber, or (iii) at the top part facing in the direction of the light exit window , the reflector arrangement comprising reflector portions over the visible light LEDs to block the light path to the light exit window . (i) on a rim around the light exit window facing into the mixing chamber and facing the top part, directly or at an angle, (ii) on the one or more side wall portions facing across the mixing chamber, or (iii) at the top part facing in the direction of the light exit window , the reflector arrangement comprising reflector portions over the visible light LEDs to block the light path to the light exit window .
A load control system for access control, comprising: a power supply ; a load controller configured to be coupled to a load, the load controller configured to receive a first power having a first current level from the power supply , and to communicate information regarding the load by executing an enumeration process using a plurality of resistors , in which each resistor is caused to output a pre-defined code, and by connecting each of the plurality of resistors to the power supply to cause the plurality of resistors to draw pre-defined amounts of current from the power supply and output a plurality of pre-defined codes; and characterised in that a supply controller that is configured to receive the plurality of pre-defined codes, evaluate an output condition based on matching the plurality of pre-defined codes to a plurality of corresponding supply codes, and cause the power supply to output a second power having a second current level greater than the first level responsive to the plurality of pre-defined codes satisfying the output condition. a power supply ; a load controller configured to be coupled to a load, the load controller configured to receive a first power having a first current level from the power supply , and to communicate information regarding the load by executing an enumeration process using a plurality of resistors , in which each resistor is caused to output a pre-defined code, and by connecting each of the plurality of resistors to the power supply to cause the plurality of resistors to draw pre-defined amounts of current from the power supply and output a plurality of pre-defined codes; and characterised in that a supply controller that is configured to receive the plurality of pre-defined codes, evaluate an output condition based on matching the plurality of pre-defined codes to a plurality of corresponding supply codes, and cause the power supply to output a second power having a second current level greater than the first level responsive to the plurality of pre-defined codes satisfying the output condition.
An apparatus configured to apply maximum power limitations, comprising: a processor configured to determine a power headroom report; and a transmitter configured to transmit the headroom report, wherein the processor is configured to determine the power headroom by subtracting a nominal maximum transmission power configured by higher layers and the power that the apparatus would use if it did not apply maximum power limitations, wherein the result of said subtracting is not limited to zero and positive values, and determine the power headroom report with both positive and negative values of power headroom, as applicable, in which negative values indicate the missing power in dB that would be required to fulfill transmission requirements. a processor configured to determine a power headroom report; and a transmitter configured to transmit the headroom report, wherein the processor is configured to determine the power headroom by subtracting a nominal maximum transmission power configured by higher layers and the power that the apparatus would use if it did not apply maximum power limitations, wherein the result of said subtracting is not limited to zero and positive values, and determine the power headroom report with both positive and negative values of power headroom, as applicable, in which negative values indicate the missing power in dB that would be required to fulfill transmission requirements.