mhurhangee/patent-ind-claim-en huggingface dataset:
A power saving control device comprising: an acquirer configured to receive (S101) a power saving request from the outside of the power saving control device ; and a controller configured to perform the following in response to receiving the power saving request: determine (S201) whether or not a load device installed in a facility consumes power; characterized in that the controller is further configured to perform the following in response to receiving the power saving request: not perform (S212) power saving control for reducing power consumption of the load device if it is determined that the load device does not consume power, determine (S202) whether or not power flows from a power system into the facility in which the load device is installed, if it is determined that the load device consumes power; perform (S211) power saving control for reducing power consumption of the load device , if it is determined that power flows from a power system into the facility in which the load device is installed; and not perform power saving control for reducing power consumption of the load device if it is determined that no power flows from a power system into the facility in which the load device is installed. an acquirer configured to receive (S101) a power saving request from the outside of the power saving control device ; and a controller configured to perform the following in response to receiving the power saving request: determine (S201) whether or not a load device installed in a facility consumes power; characterized in that the controller is further configured to perform the following in response to receiving the power saving request: not perform (S212) power saving control for reducing power consumption of the load device if it is determined that the load device does not consume power, determine (S202) whether or not power flows from a power system into the facility in which the load device is installed, if it is determined that the load device consumes power; perform (S211) power saving control for reducing power consumption of the load device , if it is determined that power flows from a power system into the facility in which the load device is installed; and not perform power saving control for reducing power consumption of the load device if it is determined that no power flows from a power system into the facility in which the load device is installed. not perform (S212) power saving control for reducing power consumption of the load device if it is determined that the load device does not consume power, determine (S202) whether or not power flows from a power system into the facility in which the load device is installed, if it is determined that the load device consumes power; perform (S211) power saving control for reducing power consumption of the load device , if it is determined that power flows from a power system into the facility in which the load device is installed; and not perform power saving control for reducing power consumption of the load device if it is determined that no power flows from a power system into the facility in which the load device is installed.
An oven comprising: a housing that includes a cavity having a first and second openings ; a slider for receiving food items (RF, RF-1, RF-2, RF-3, CF, CF-1), said slider includes a plurality of stoppers that cover said first and second openings to prevent heat within said cavity from escaping through said first and second openings , and wherein one of said stoppers divides said slider into a first and second food loading sections ; a heat source for providing heat to said cavity for heating up any food item (RF, RF-1, RF-2, RF-3, CF, CF-1) placed on one of the first and second food loading sections located within said cavity; characterized in that a lever system or a motor operably is connected to said slider to linearly move said slider in and out of said cavity through said first and second openings , wherein a portion of said slider is capable of serving as a heat sink for lowering the temperature of said cavity during oven operation. a housing that includes a cavity having a first and second openings ; a slider for receiving food items (RF, RF-1, RF-2, RF-3, CF, CF-1), said slider includes a plurality of stoppers that cover said first and second openings to prevent heat within said cavity from escaping through said first and second openings , and wherein one of said stoppers divides said slider into a first and second food loading sections ; a heat source for providing heat to said cavity for heating up any food item (RF, RF-1, RF-2, RF-3, CF, CF-1) placed on one of the first and second food loading sections located within said cavity; characterized in that a lever system or a motor operably is connected to said slider to linearly move said slider in and out of said cavity through said first and second openings , wherein a portion of said slider is capable of serving as a heat sink for lowering the temperature of said cavity during oven operation.
Coefficient of friction-increasing insert having: a compressible composite carrier , which comprises: glass and/or ceramic ; and also plastic ; and a multiplicity of hard cores , each of which has a Mohs hardness of at least 8 and - has a volume-equivalent sphere diameter (D21) of at least 8 μm; and - is bonded to the composite carrier by means of an adhesion promoter ; and wherein the non-compressed composite carrier has a thickness (d1) in the range from 10 um to 100 μm; and/or, with the composite carrier in a non-compressed state, the coefficient of friction-increasing insert has a thickness (d3) of less than or equal to 420 um, and wherein, for a plurality of the hard cores having a volume-equivalent sphere diameter (D21) of at least 8 μm, it is the case that the adhesion promoters by means of which the hard cores of said plurality are bonded to the composite carrier do not form a continuous layer, but rather, for any pairs of hard cores of said plurality, are spaced apart from one another in pairs. a compressible composite carrier , which comprises: glass and/or ceramic ; and also plastic ; and glass and/or ceramic ; and also plastic ; and a multiplicity of hard cores , each of which has a Mohs hardness of at least 8 and - has a volume-equivalent sphere diameter (D21) of at least 8 μm; and - is bonded to the composite carrier by means of an adhesion promoter ; and - has a volume-equivalent sphere diameter (D21) of at least 8 μm; and - is bonded to the composite carrier by means of an adhesion promoter ; and wherein the non-compressed composite carrier has a thickness (d1) in the range from 10 um to 100 μm; and/or, with the composite carrier in a non-compressed state, the coefficient of friction-increasing insert has a thickness (d3) of less than or equal to 420 um, and wherein, for a plurality of the hard cores having a volume-equivalent sphere diameter (D21) of at least 8 μm, it is the case that the adhesion promoters by means of which the hard cores of said plurality are bonded to the composite carrier do not form a continuous layer, but rather, for any pairs of hard cores of said plurality, are spaced apart from one another in pairs.
A three-dimensional display device comprising: a plurality of transmissive display units arranged in different depth positions in view from an observer; and a moire vanishing element that diffuses a light, characterized in that the moiré vanishing element has a spatial frequency characteristic to cut off a spatial frequency more than a spatial frequency having a cycle being twice as large as an interval of boundaries of pixels forming a first transmissive display unit arranged behind the moiré vanishing element in the view from the observer. a plurality of transmissive display units arranged in different depth positions in view from an observer; and a moire vanishing element that diffuses a light, characterized in that the moiré vanishing element has a spatial frequency characteristic to cut off a spatial frequency more than a spatial frequency having a cycle being twice as large as an interval of boundaries of pixels forming a first transmissive display unit arranged behind the moiré vanishing element in the view from the observer.
A primary frequency modulation method for a wind turbine, whereby the primary frequency modulation method comprises: detecting (S10) a current frequency of a power grid; determining (S30) an instruction value of a power change amount for a primary frequency modulation by a first determining process when the current frequency of the power grid is less than a standard frequency of the power grid, wherein the first determining process comprises: determining a reference value of the power change amount for the primary frequency modulation based on the current frequency; and when it is determined that currently there is an active power headroom for the wind turbine, comparing the reference value with a current active power headroom value of the wind turbine and determining (S30) the instruction value of the power change amount for the primary frequency modulation, wherein the current active power headroom value is determined based on a proportional integral controller transfer function indicating a relationship among an active power headroom value, a current pitch angle, and a minimum value of a pitch angle at which pitch control is initiated; and performing (S40) the primary frequency modulation by performing torque control and/or pitch control on the wind turbine based on the instruction value of the power change amount. detecting (S10) a current frequency of a power grid; determining (S30) an instruction value of a power change amount for a primary frequency modulation by a first determining process when the current frequency of the power grid is less than a standard frequency of the power grid, wherein the first determining process comprises: determining a reference value of the power change amount for the primary frequency modulation based on the current frequency; and when it is determined that currently there is an active power headroom for the wind turbine, comparing the reference value with a current active power headroom value of the wind turbine and determining (S30) the instruction value of the power change amount for the primary frequency modulation, wherein the current active power headroom value is determined based on a proportional integral controller transfer function indicating a relationship among an active power headroom value, a current pitch angle, and a minimum value of a pitch angle at which pitch control is initiated; and performing (S40) the primary frequency modulation by performing torque control and/or pitch control on the wind turbine based on the instruction value of the power change amount.
An antenna integrated printed wiring board, AiPWB , the AiPWB comprising: a printed wiring board, PWB , having a bottom surface , wherein the PWB includes a ledge at the bottom surface; a first radiating element having a first radiator and a first probe in signal communication with the first radiator , wherein the first radiating element is integrated into the PWB; and a first split-via in signal communication with the first probe, wherein a first portion of the first split-via is integrated into the PWB at the bottom surface and wherein a second portion of the first split-via is integrated into the ledge. a printed wiring board, PWB , having a bottom surface , wherein the PWB includes a ledge at the bottom surface; a first radiating element having a first radiator and a first probe in signal communication with the first radiator , wherein the first radiating element is integrated into the PWB; and a first radiator and a first probe in signal communication with the first radiator , wherein the first radiating element is integrated into the PWB; and a first split-via in signal communication with the first probe, wherein a first portion of the first split-via is integrated into the PWB at the bottom surface and wherein a second portion of the first split-via is integrated into the ledge.
A steam heating apparatus, comprising: a housing ; a heater ; a water inlet ; and a steam outlet , wherein the heater comprises a base and a heating body extending vertically and downward from the base, and the heating body comprises a water intake channel , a steam outlet channel and a heating pipe , and the water intake channel and the steam outlet channel are located between a pair of vertical heating sections of the heating pipe , the water intake channel has one end in communication with the water inlet arranged at an end of the heater , and another end open to allow steam to flow out, and a nozzle in communication with the water inlet is arranged at the bottom of the water inlet , and water flows in from the water inlet and is scattered onto a tubular wall of the water intake channel by the nozzle, and the steam outlet channel is in communication with the steam outlet provided at another end of the heater , and the base covers the housing , and the heating body is arranged in the housing , which is provided with a housing opening allowing the steam outlet to extend to an outside, and a heating chamber is formed between the heater and an inner wall of the housing , and a steam intake hole is provided on the top of the steam outlet channel , and the heated steam enters from the steam intake hole on the top of the steam outlet channel , and is ejected from the bottom of the steam outlet channel . a housing ; a heater ; a water inlet ; and a steam outlet , wherein the heater comprises a base and a heating body extending vertically and downward from the base, and the heating body comprises a water intake channel , a steam outlet channel and a heating pipe , and the water intake channel and the steam outlet channel are located between a pair of vertical heating sections of the heating pipe , the water intake channel has one end in communication with the water inlet arranged at an end of the heater , and another end open to allow steam to flow out, and a nozzle in communication with the water inlet is arranged at the bottom of the water inlet , and water flows in from the water inlet and is scattered onto a tubular wall of the water intake channel by the nozzle, and the steam outlet channel is in communication with the steam outlet provided at another end of the heater , and the base covers the housing , and the heating body is arranged in the housing , which is provided with a housing opening allowing the steam outlet to extend to an outside, and a heating chamber is formed between the heater and an inner wall of the housing , and a steam intake hole is provided on the top of the steam outlet channel , and the heated steam enters from the steam intake hole on the top of the steam outlet channel , and is ejected from the bottom of the steam outlet channel .
An organic light-emitting device comprising: a first electrode ; a second electrode facing the first electrode ; m light-emitting units stacked between the first electrode and the second electrode and comprising at least one emission layer; and m-1 charge generating layers , each located between two neighboring light-emitting units of the m light-emitting units and comprising an n-type charge generating layer and a p-type charge generation layer , wherein m is an integer of 2 or more, characterized in that at least one of the m-1 p-type charge generation layers comprises a first doping layer and a second doping layer (155P"), the first doping layer comprises a first organic material and a first inorganic material, the second doping layer (155P") comprises a second organic material and a second inorganic material, and the first inorganic material and the second inorganic material are different from each other. a first electrode ; a second electrode facing the first electrode ; m light-emitting units stacked between the first electrode and the second electrode and comprising at least one emission layer; and m-1 charge generating layers , each located between two neighboring light-emitting units of the m light-emitting units and comprising an n-type charge generating layer and a p-type charge generation layer , wherein m is an integer of 2 or more, characterized in that at least one of the m-1 p-type charge generation layers comprises a first doping layer and a second doping layer (155P"), the first doping layer comprises a first organic material and a first inorganic material, the second doping layer (155P") comprises a second organic material and a second inorganic material, and the first inorganic material and the second inorganic material are different from each other.
An antibody binding to epidermal growth factor receptor variant III (EGFRvIII) comprising an amino acid sequence of SEQ ID NO: 1, free from cross-reacting with epidermal growth factor receptor (EGFR), wherein the antibody is specifically binding to the 1 st to 13 th amino acid regions of the amino acid sequence of SEQ ID NO: 1 and comprises: a heavy chain variable region comprising a sequence of SEQ ID NO: 28 and a light chain variable region comprising a sequence of SEQ ID NO: 32 or 33.
A mixing chamber provided on a blood circuit and including a main body portion having a cylindrical shape, the main body portion having, on a side surface of the cylindrical shape, a first inlet through which a liquid is introduced into a space of the cylindrical shape and a second inlet through which blood is introduced, a space being provided to extend from the first inlet to a highest portion of the main body portion the mixing chamber being configured such that the liquid and the blood introduced from the first and the second inlets into the main body portion move toward a direction displaced from a center of the main body portion , wherein the inner circumferential surface of the main body portion guides, in a swirling manner, the liquid flowing from the first inlet into the main body portion , and wherein the inner circumferential surface of the main body portion guides, in a swirling manner, the blood flowing from the second inlet into the main body portion , wherein the liquid and the blood introduced from the first inlet and the second inlet are guided in one rotation direction along the surface of the main body portion , the first inlet being provided above the second inlet . the main body portion having, on a side surface of the cylindrical shape, a first inlet through which a liquid is introduced into a space of the cylindrical shape and a second inlet through which blood is introduced, a space being provided to extend from the first inlet to a highest portion of the main body portion the mixing chamber being configured such that the liquid and the blood introduced from the first and the second inlets into the main body portion move toward a direction displaced from a center of the main body portion ,
A catalyst layer for anodes of Alkaline Exchange Membrane Fuel Cells (AEMFC), comprising: catalyst nanoparticles, wherein each catalyst nanoparticle comprises: one or more nanoparticles of catalytically active metal supported on at least one Ru nanoparticle; at least one nanoparticle of crystalline RuO 2 ; and an ionomer, wherein the catalytically active metal is selected from a group consisting of: Pt, Ir, and their alloys. one or more nanoparticles of catalytically active metal supported on at least one Ru nanoparticle; at least one nanoparticle of crystalline RuO 2 ; and an ionomer, wherein the catalytically active metal is selected from a group consisting of: Pt, Ir, and their alloys.
A method for transmitting data, comprising: determining (S210) that a terminal device satisfies a preset condition for reusing a first timing advance (TA) value; and transmitting (S220) data based on the first TA value, wherein the first TA value is used by the terminal device during a previous data transmission, the previous data transmission corresponding to a previous signal power value; wherein the determining that a terminal device satisfies a preset condition for reusing a first timing advance (TA) value comprises: receiving a signal power upper threshold and a signal power lower threshold sent from a network side device, wherein the signal power upper threshold is greater than the signal power lower threshold and a range therebetween is centered on the previous signal power value; and determining that a current signal power value of the terminal device is greater than the signal power lower threshold and smaller than the signal power upper threshold, indicating that a variation value between the current signal power value and the previous signal power value falls within the range. determining (S210) that a terminal device satisfies a preset condition for reusing a first timing advance (TA) value; and transmitting (S220) data based on the first TA value, wherein the first TA value is used by the terminal device during a previous data transmission, the previous data transmission corresponding to a previous signal power value; wherein the determining that a terminal device satisfies a preset condition for reusing a first timing advance (TA) value comprises: receiving a signal power upper threshold and a signal power lower threshold sent from a network side device, wherein the signal power upper threshold is greater than the signal power lower threshold and a range therebetween is centered on the previous signal power value; and determining that a current signal power value of the terminal device is greater than the signal power lower threshold and smaller than the signal power upper threshold, indicating that a variation value between the current signal power value and the previous signal power value falls within the range. receiving a signal power upper threshold and a signal power lower threshold sent from a network side device, wherein the signal power upper threshold is greater than the signal power lower threshold and a range therebetween is centered on the previous signal power value; and determining that a current signal power value of the terminal device is greater than the signal power lower threshold and smaller than the signal power upper threshold, indicating that a variation value between the current signal power value and the previous signal power value falls within the range.