mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a display ; and a controller circuit , configured to control the electronic device to: provide a captured (S0) burst of images , comprising at least three images including a (S1) main image , and a plurality of (S11) pre-images captured before the main image in the burst of images; characterized in that the controller circuit is further configured to control the electronic device to: display (S2), responsive to detecting user navigation between full screen images in an album application, the pre-images and the main image in sequence on the display , wherein the pre-images are played back (S3) as a frame-by-frame animation until stopping at the main image, and maintain display (S4) of the main image until user input is detected to change to another image or another view. a display ; and a controller circuit , configured to control the electronic device to: provide a captured (S0) burst of images , comprising at least three images including a (S1) main image , and a plurality of (S11) pre-images captured before the main image in the burst of images; characterized in that the controller circuit is further configured to control the electronic device to: display (S2), responsive to detecting user navigation between full screen images in an album application, the pre-images and the main image in sequence on the display , wherein the pre-images are played back (S3) as a frame-by-frame animation until stopping at the main image, and maintain display (S4) of the main image until user input is detected to change to another image or another view. a (S1) main image , and a plurality of (S11) pre-images captured before the main image in the burst of images; characterized in that the controller circuit is further configured to control the electronic device to: display (S2), responsive to detecting user navigation between full screen images in an album application, the pre-images and the main image in sequence on the display , wherein the pre-images are played back (S3) as a frame-by-frame animation until stopping at the main image, and maintain display (S4) of the main image until user input is detected to change to another image or another view. display (S2), responsive to detecting user navigation between full screen images in an album application, the pre-images and the main image in sequence on the display , wherein the pre-images are played back (S3) as a frame-by-frame animation until stopping at the main image, and maintain display (S4) of the main image until user input is detected to change to another image or another view.
A laser-based detection system comprising: a laser device configured to emit a laser beam with a wavelength in a range of 2.5 to 4.0 μm or in a range of 3.0 to 4.5 μm; a measuring chamber configured to receive in an internal cavity ambient air and the laser beam , wherein the measuring chamber is configured to bounce the laser beam inside the internal cavity multiple times; a photosensor configured to receive an output laser beam from the measuring chamber , characterized in that the photosensor is further configured to measure an absorption of the 3.3 μm wavelength by the ambient air in the internal cavity ; and in that the system comprises a data acquisition system configured to receive measurements from the photosensor and determine a presence of benzene in the ambient air based on the absorption of the 3.3 μm wavelength. a laser device configured to emit a laser beam with a wavelength in a range of 2.5 to 4.0 μm or in a range of 3.0 to 4.5 μm; a measuring chamber configured to receive in an internal cavity ambient air and the laser beam , wherein the measuring chamber is configured to bounce the laser beam inside the internal cavity multiple times; a photosensor configured to receive an output laser beam from the measuring chamber , characterized in that the photosensor is further configured to measure an absorption of the 3.3 μm wavelength by the ambient air in the internal cavity ; and in that the system comprises a data acquisition system configured to receive measurements from the photosensor and determine a presence of benzene in the ambient air based on the absorption of the 3.3 μm wavelength.
A measuring device comprising a transmitting unit and a receiving unit , the measuring device being configured to perform a measurement by transmitting a microwave from the transmitting unit to an object to be measured , such that the microwave is reflected by the object to be measured , and receiving the reflected microwave by the receiving unit , wherein the receiving unit is disposed behind the transmitting unit with respect to the object to be measured , and wherein the receiving unit is formed larger than the transmitting unit so as to be large enough to be capable of receiving reflected waves from the object to be measured , wherein the transmitting unit and the receiving unit are each an array antenna enclosed by a waveguide box of the measuring device, the waveguide box for the transmitting unit being smaller than the waveguide box for the receiving unit and being enclosed by the waveguide box for the receiving unit, or each formed as a horn antenna , the horn antenna forming the transmitting unit being smaller than the horn antenna forming the receiving unit and being surrounded by the horn antenna forming the receiving unit , wherein the measuring device comprises a flat window and - an opening portion of the waveguide box for the transmitting unit and - an opening portion of the waveguide box for the receiving unit or - a horn opening portion of the horn antenna forming the transmitting unit and - a horn opening portion of the horn antenna forming the receiving unit are aligned with and mounted on the flat window . - an opening portion of the waveguide box for the transmitting unit and - an opening portion of the waveguide box for the receiving unit or - a horn opening portion of the horn antenna forming the transmitting unit and - a horn opening portion of the horn antenna forming the receiving unit are aligned with and mounted on the flat window .
Adjustable modular spacer device for the treatment of an articulation of the human body, comprising a connecting central body , wherein said central body is provided with an end having a substantially flat first surface , a head , adapted to be arranged within an articular cavity, said head comprising a cap and a base opposite to said cap , wherein said cap and said base are connected to each other, a rod-like element , adapted to be fixedly connected at a bone end, first means for connecting said head to said central body , wherein said first connection means are adjustable and adapted to adjust the inclination of the head with respect to said central body along a longitudinal plane and/or along a transverse plane of the human body, said first connection means comprise a pin and a seat complementary to each other, defining a first longitudinal axis of coupling of said head with said central body , characterised in that said cap has a central symmetry axis wherein said central symmetry axis is inclined with respect to said first axis of said first connection means by an angle , said pin projecting from said first surface of said central body and said seat is provided in said base of said head or said pin projecting from said base of said head and said seat is provided in said first surface of said central body , wherein during the coupling of said first connection means , said first surface is abutted against said base of said head , or wherein said adjustable modular spacer device comprises at least one annular element interposed between said central body and said head , and during coupling of said first connection means , said base of said head is abutted against said annular element and said first surface of said central body is abutted against an opposite side of said annular element .
A magnetoresistance element including a magnetic tunnel junction portion configured by sequentially stacking a perpendicularly magnetized first magnetic body , an insulation layer , and a perpendicularly magnetized second magnetic body , wherein the second magnetic body has a configuration wherein a ferromagnetic layer and a rare earth-transition metal alloy layer are stacked sequentially from the insulation layer side interface, said insulation layer side interface being the interface between said insulation layer and said second magnetic body , wherein the material of the ferromagnetic layer is Fe, FeCo, or FeCoB, and the material of the rare earth-transition metal alloy layer is TbCo, GdCo, GdFeCo, or TbFeCo; characterized in that a heat assist layer (28-1) configured to heat the second magnetic body with a heat generated based on a current flowing through the magnetic tunnel junction portion is further provided, wherein the material of the heat assist layer (28-1) is TaN X , TaO X , or TiO X ; and the magnetization direction of the second magnetic body is configured to be reversed by said heating of the second magnetic body .
A method of manufacturing a three-dimensional object by additive layer manufacturing, comprising the following steps: - successively providing a plurality of layers of material in powder form, one on top of the other, on a support means inside a chamber , and - irradiating each layer with a laser beam or particle beam prior to providing the subsequent layer, wherein each layer is irradiated selectively only in those portions of the layer corresponding to the three-dimensional object being manufactured and wherein the irradiation is carried out in such a manner that the material is melted or sintered locally in the corresponding portions, wherein a gas atmosphere having a controlled pressure and composition is maintained inside the chamber at least during each of the irradiation steps, characterized in that - at least one of the pressure and the composition of the gas atmosphere inside the chamber is controlled such that at least two different gas atmospheres having different predetermined pressures and/or compositions are present inside the chamber during the irradiation of different ones of the layers, and - the temperature of the gas atmosphere inside the chamber is controlled such that at least two different temperatures of the gas atmosphere are present during the irradiation of different ones of the layers, and/or - the temperature of the layer being irradiated is controlled such that the temperature of the layers is changed between the irradiation of one or more pairs of adjacent layers such that at least two different temperatures of the layer being irradiated are present during the irradiation of different ones of the layers. - successively providing a plurality of layers of material in powder form, one on top of the other, on a support means inside a chamber , and - irradiating each layer with a laser beam or particle beam prior to providing the subsequent layer, wherein each layer is irradiated selectively only in those portions of the layer corresponding to the three-dimensional object being manufactured and wherein the irradiation is carried out in such a manner that the material is melted or sintered locally in the corresponding portions, wherein a gas atmosphere having a controlled pressure and composition is maintained inside the chamber at least during each of the irradiation steps, - at least one of the pressure and the composition of the gas atmosphere inside the chamber is controlled such that at least two different gas atmospheres having different predetermined pressures and/or compositions are present inside the chamber during the irradiation of different ones of the layers, and - the temperature of the gas atmosphere inside the chamber is controlled such that at least two different temperatures of the gas atmosphere are present during the irradiation of different ones of the layers, and/or - the temperature of the layer being irradiated is controlled such that the temperature of the layers is changed between the irradiation of one or more pairs of adjacent layers such that at least two different temperatures of the layer being irradiated are present during the irradiation of different ones of the layers.
Pipe having a pipe element for conveying a medium in a flow direction (A), having a flange element for connecting the pipe element to a connection partner, wherein the pipe element has a pipe body with a media passage opening for conveying the medium in the flow direction (A), wherein the flange element has a flange body with a media passage opening for conveying the medium in the flow direction (A), wherein the flange element is arranged at one end of the pipe element in such a way that the media passage openings at least essentially overlap, and having a sensor element which is arranged in the flange body such that at least a portion of the sensor element can be in contact with the medium, wherein the flange element has a sensor passage opening which connects the media passage opening of the flange element to the environment of the flange element , wherein at least a portion of the sensor element is arranged in the sensor passage opening , characterized in that the flange element has a pulsation damping chamber which is configured as a recess inside the flange body open towards the media passage opening , wherein the pulsation damping chamber is arranged directly opposite the sensor passage opening . having a pipe element for conveying a medium in a flow direction (A), having a flange element for connecting the pipe element to a connection partner, wherein the pipe element has a pipe body with a media passage opening for conveying the medium in the flow direction (A), wherein the flange element has a flange body with a media passage opening for conveying the medium in the flow direction (A), wherein the flange element is arranged at one end of the pipe element in such a way that the media passage openings at least essentially overlap, and having a sensor element which is arranged in the flange body such that at least a portion of the sensor element can be in contact with the medium, wherein the flange element has a sensor passage opening which connects the media passage opening of the flange element to the environment of the flange element , wherein at least a portion of the sensor element is arranged in the sensor passage opening , characterized in that the flange element has a pulsation damping chamber which is configured as a recess inside the flange body open towards the media passage opening , wherein the pulsation damping chamber is arranged directly opposite the sensor passage opening .
A method for generating semi-mature dendritic cells in which expression of NR4A2 and/or UBASH3B protein or a gene encoding NR4A2 and/or UBASH3B protein is increased at least 2-fold compared to immature dendritic cells, the method comprising the steps of: (a) treating immature dendritic cells in vitro with a self-antigen (autoantigen), a cytokine and prostaglandin E2 (PGE2); and (b) confirming that expression of NR4A2 protein and/or UBASH3B protein or a gene encoding the protein in the semi-mature dendritic cells is increased at least 2-fold compared to that in immature dendritic cells, or confirming that expression of PTGS2 and/or IDO protein or a gene encoding the protein in the semi-mature dendritic cells is further increased. (a) treating immature dendritic cells in vitro with a self-antigen (autoantigen), a cytokine and prostaglandin E2 (PGE2); and (b) confirming that expression of NR4A2 protein and/or UBASH3B protein or a gene encoding the protein in the semi-mature dendritic cells is increased at least 2-fold compared to that in immature dendritic cells, or confirming that expression of PTGS2 and/or IDO protein or a gene encoding the protein in the semi-mature dendritic cells is further increased.
A sound-transmitting member comprising: two skin layers ; one intermediate layer , two core layers ; the core layers and the intermediate layer being alternately stacked between the skin layers ; and the skin layers and the intermediate layer being formed of a material having a higher elastic modulus than the core layers ; wherein the thickness of the intermediate layer is 2.0 mm, the thickness of each skin layer is 1.0 mm, and the thickness of each core layer is 10.5 mm. two skin layers ; one intermediate layer , two core layers ; the core layers and the intermediate layer being alternately stacked between the skin layers ; and the skin layers and the intermediate layer being formed of a material having a higher elastic modulus than the core layers ; wherein the thickness of the intermediate layer is 2.0 mm, the thickness of each skin layer is 1.0 mm, and the thickness of each core layer is 10.5 mm.
A lithium ion secondary battery at least comprising a positive electrode , a negative electrode , and an electrolyte solution, the positive electrode at least including a positive electrode active material and a binder, the positive electrode active material including more than or equal to 0.08 mass % of a lithium carbonate and a remainder of a lithium complex oxide, the binder being at least one selected from a group consisting of polytetrafluoroethylene, polyethylene oxide, and carboxymethylcellulose, the electrolyte solution at least including a solvent and a lithium salt, the solvent being at least one of N,N-dimethylformamide and dimethylacetamide, a concentration of the lithium salt in the electrolyte solution being more than or equal to 1.9 mol/l and less than or equal to 2.3 mol/l.
A system for monitoring flow conditions of fluid flowing from a product container (252; 254; 256; 258) through a solenoid pump comprising: at least one solenoid pump comprising a solenoid coil , which, when energized, produces a stroke of the solenoid pump; at least one product container (252; 254; 256; 258) connected to the at least one solenoid pump wherein the at least one solenoid pump pumps fluid from the at least one product container during each stroke; at least one PWM controller configured to energize the at least one solenoid pump; at least one current sensor for sensing the current flow through the solenoid coil and producing an output of the sensed current flow; and a control logic subsystem for controlling the flow of fluids through the solenoid pump by commanding the PWM controller and for monitoring the current through the solenoid pump by receiving the output from the current sensor, wherein the control logic subsystem uses the measured current flow through the solenoid coil to determine whether the stroke of the solenoid pump is functional; and characterised in that the control logic subsystem uses at least the measured current flow through the solenoid coil to determine a Sold-Out condition of the at least one product container. at least one solenoid pump comprising a solenoid coil , which, when energized, produces a stroke of the solenoid pump; at least one product container (252; 254; 256; 258) connected to the at least one solenoid pump wherein the at least one solenoid pump pumps fluid from the at least one product container during each stroke; at least one PWM controller configured to energize the at least one solenoid pump; at least one current sensor for sensing the current flow through the solenoid coil and producing an output of the sensed current flow; and a control logic subsystem for controlling the flow of fluids through the solenoid pump by commanding the PWM controller and for monitoring the current through the solenoid pump by receiving the output from the current sensor, wherein the control logic subsystem uses the measured current flow through the solenoid coil to determine whether the stroke of the solenoid pump is functional; and characterised in that the control logic subsystem uses at least the measured current flow through the solenoid coil to determine a Sold-Out condition of the at least one product container.
A method for sharing a channel occupancy time, applied to a terminal device and comprising: determining uplink control information, UCI, wherein the UCI comprises first indication information, the first indication information is used to enable a network device to determine related information about downlink transmission in a target time period, the terminal device shares a target channel occupancy time, COT, in the target time period with the network device, and the target COT is obtained by the terminal device based on listen before talk, LBT; and transmitting the UCI, characterized in that the UCI further comprises a fourth indication information, the fourth indication information is used to indicate a start time of the target time period and duration of the target time period, the start time of the target time period is configured by using a value of an offset relative to a transmission end time of a PUSCH carrying the UCI. determining uplink control information, UCI, wherein the UCI comprises first indication information, the first indication information is used to enable a network device to determine related information about downlink transmission in a target time period, the terminal device shares a target channel occupancy time, COT, in the target time period with the network device, and the target COT is obtained by the terminal device based on listen before talk, LBT; and transmitting the UCI, characterized in that the UCI further comprises a fourth indication information, the fourth indication information is used to indicate a start time of the target time period and duration of the target time period, the start time of the target time period is configured by using a value of an offset relative to a transmission end time of a PUSCH carrying the UCI.
A printhead comprising: a support structure comprising a deformable portion defining at least a top surface of a pumping chamber ; and an actuator disposed on the deformable portion of the support structure , wherein a trench is defined in the top surface of the actuator , wherein the trench defines at least a portion of a loop offset inwardly from a portion of a perimeter of the deformable portion , wherein the trench is a first trench , and further comprising a second trench defined in the top surface of the actuator , the second trench extending radially outward from the first trench , and wherein a first end of the second trench is connected to the first trench and a second end of the second trench is connected to a third trench defined in the top surface of the actuator , wherein the third trench has a rounded shape. a support structure comprising a deformable portion defining at least a top surface of a pumping chamber ; and an actuator disposed on the deformable portion of the support structure , wherein a trench is defined in the top surface of the actuator , wherein the trench defines at least a portion of a loop offset inwardly from a portion of a perimeter of the deformable portion , wherein the trench is a first trench , and further comprising a second trench defined in the top surface of the actuator , the second trench extending radially outward from the first trench , and wherein a first end of the second trench is connected to the first trench and a second end of the second trench is connected to a third trench defined in the top surface of the actuator , wherein the third trench has a rounded shape.