mhurhangee/patent-ind-claim-en huggingface dataset:
A sidelink data transmission method, which is applied to a terminal device (100, 600, 810, UE1), the method comprising: the terminal device (100, 600, 810, UE1) sending a first sidelink data to another terminal device (100, 600, 810, UE2); the terminal device (100, 600, 810, UE1) receiving acknowledgement information for the first sidelink data from the another terminal device (100, 600, 810, UE2), wherein the acknowledgement information is used to notify that the first sidelink data has been correctly received; the terminal device (100, 600, 810, UE1) sending, to a network device , the acknowledgement information for the first sidelink data; the terminal device (100, 600, 810, UE1) receiving first information from the network device, wherein the first information is used for instructing the terminal device (100, 600, 810, UE1) to retransmit the first sidelink data; the method is characterized in that the terminal device (100, 600, 810, UE1) does not retransmit the first sidelink data when the first information is received, and the method further comprises: the terminal device (100, 600, 810, UE1) sending the acknowledgement information to the network device ; or the terminal device (100, 600, 810, UE1) sending second sidelink data to the another terminal device (100, 600, 810, UE2), wherein the second sidelink data is different from the first sidelink data. the terminal device (100, 600, 810, UE1) sending a first sidelink data to another terminal device (100, 600, 810, UE2); the terminal device (100, 600, 810, UE1) receiving acknowledgement information for the first sidelink data from the another terminal device (100, 600, 810, UE2), wherein the acknowledgement information is used to notify that the first sidelink data has been correctly received; the terminal device (100, 600, 810, UE1) sending, to a network device , the acknowledgement information for the first sidelink data; the terminal device (100, 600, 810, UE1) receiving first information from the network device, wherein the first information is used for instructing the terminal device (100, 600, 810, UE1) to retransmit the first sidelink data; the method is characterized in that the terminal device (100, 600, 810, UE1) does not retransmit the first sidelink data when the first information is received, and the method further comprises: the terminal device (100, 600, 810, UE1) sending the acknowledgement information to the network device ; or the terminal device (100, 600, 810, UE1) sending second sidelink data to the another terminal device (100, 600, 810, UE2), wherein the second sidelink data is different from the first sidelink data. the terminal device (100, 600, 810, UE1) sending the acknowledgement information to the network device ; or the terminal device (100, 600, 810, UE1) sending second sidelink data to the another terminal device (100, 600, 810, UE2), wherein the second sidelink data is different from the first sidelink data.
A pixel (PXL) comprising: an organic light emitting diode (OLED); a first transistor (M1) configured to control the amount of current flowing from a first driving power source (ELVDD) to a second driving power source (ELVSS) via the organic light emitting diode (OLED), corresponding to a voltage of a first node (N1); a second transistor (M2) coupled between the first node (N1) and a second node (N2), the second transistor (M2) configured to be turned on in response to a scan signal being supplied to an ith (i is a natural number) scan line (Si); a third transistor (M3) coupled between the second node (N2) and an anode electrode of the organic light emitting diode (OLED); a first capacitor (C1) coupled between a data line (D) and the second node (N2); a fourth transistor (M4) coupled between an initialization power source (Vint) and the anode electrode of the organic light emitting diode (OLED), the fourth transistor (M4) configured to be turned on in response to a first control signal being supplied to a first control line (CL1), and a storage capacitor (Cst) coupled between the first node (N1) and the initialization power source (Vint). an organic light emitting diode (OLED); a first transistor (M1) configured to control the amount of current flowing from a first driving power source (ELVDD) to a second driving power source (ELVSS) via the organic light emitting diode (OLED), corresponding to a voltage of a first node (N1); a second transistor (M2) coupled between the first node (N1) and a second node (N2), the second transistor (M2) configured to be turned on in response to a scan signal being supplied to an ith (i is a natural number) scan line (Si); a third transistor (M3) coupled between the second node (N2) and an anode electrode of the organic light emitting diode (OLED); a first capacitor (C1) coupled between a data line (D) and the second node (N2); a fourth transistor (M4) coupled between an initialization power source (Vint) and the anode electrode of the organic light emitting diode (OLED), the fourth transistor (M4) configured to be turned on in response to a first control signal being supplied to a first control line (CL1), and a storage capacitor (Cst) coupled between the first node (N1) and the initialization power source (Vint).
Device for increasing a patient's compliance with a therapy relating to an upper airway disorder, comprising: - a receiving unit for receiving vital sign data including one or more of glucose level data that is measured by a glucose sensor and norepinephrine level data of the patient that is measured by a norepinephrine sensor, and therapy data including information regarding the therapy of the patient ; - a processing unit configured to process the therapy data and the vital sign data in order to determine feedback information based on the therapy data and the vital sign data; - a display unit for displaying the feedback information based on the therapy data and the vital sign data; and a vital sign sensor for measuring the vital sign data of the patient , wherein the vital sign sensor comprises the glucose sensor and/or the norepinephrine sensor, wherein the therapy is positive airway pressure (PAP) therapy, wherein the therapy data includes time periods of using a therapy device for providing the therapy, characterized in that the feedback information comprises statistical information about the time periods of using the therapy device and correlating of the same with the vital sign data, wherein the feedback information informs about predicted vital sign data upon proper use of the therapy device in comparison to an actual use and the vital sign data. - a receiving unit for receiving vital sign data including one or more of glucose level data that is measured by a glucose sensor and norepinephrine level data of the patient that is measured by a norepinephrine sensor, and therapy data including information regarding the therapy of the patient ; - a processing unit configured to process the therapy data and the vital sign data in order to determine feedback information based on the therapy data and the vital sign data; - a display unit for displaying the feedback information based on the therapy data and the vital sign data; and a vital sign sensor for measuring the vital sign data of the patient , wherein the vital sign sensor comprises the glucose sensor and/or the norepinephrine sensor, wherein the therapy is positive airway pressure (PAP) therapy, wherein the therapy data includes time periods of using a therapy device for providing the therapy, characterized in that the feedback information comprises statistical information about the time periods of using the therapy device and correlating of the same with the vital sign data, wherein the feedback information informs about predicted vital sign data upon proper use of the therapy device in comparison to an actual use and the vital sign data.
A surface treatment agent for enamel steel or part consisting of an aqueous solution, comprising the following solid components in parts by mass: 15 to 55 parts of an aqueous polymer resin A, 32 to 58 parts of an organosilane coupling agent B having at least one epoxy functional group, wherein the ratio of parts by mass of the organosilane coupling agent B to parts by mass of the aqueous polymer resin A is 0.6 to 2.2; 0.2 to 3 parts of a polyol C containing at least three hydroxyl groups; 0.05 to 2 parts by mass of a molybdenum compound D, in terms of elemental molybdenum; 0.1 to 1 parts by mass of a phosphorus compound E, in terms of elemental phosphorus; 0.1 to 1 parts by mass of a zirconium compound F, in terms of elemental zirconium; 0.5 to 8 parts of a metal salt or an organometallic compound G having a function of promoting adhesion, wherein the metal salt or organometallic compound G is a metal salt or an organometallic compound which promotes the adhesion between the enamel layer and the steel substrate for enameling in the sintering process of the ceramic glaze layer; and the metal in the metal salt or organometallic compound G is at least one of Cu, Ca, Ba, W, Fe, Sb, Co, Al, In, Zn, Ni, Ti, V, Sn, Ge, Mn, Sr, and Ga. 15 to 55 parts of an aqueous polymer resin A, 32 to 58 parts of an organosilane coupling agent B having at least one epoxy functional group, wherein the ratio of parts by mass of the organosilane coupling agent B to parts by mass of the aqueous polymer resin A is 0.6 to 2.2; 0.2 to 3 parts of a polyol C containing at least three hydroxyl groups; 0.05 to 2 parts by mass of a molybdenum compound D, in terms of elemental molybdenum; 0.1 to 1 parts by mass of a phosphorus compound E, in terms of elemental phosphorus; 0.1 to 1 parts by mass of a zirconium compound F, in terms of elemental zirconium; 0.5 to 8 parts of a metal salt or an organometallic compound G having a function of promoting adhesion, wherein the metal salt or organometallic compound G is a metal salt or an organometallic compound which promotes the adhesion between the enamel layer and the steel substrate for enameling in the sintering process of the ceramic glaze layer; and the metal in the metal salt or organometallic compound G is at least one of Cu, Ca, Ba, W, Fe, Sb, Co, Al, In, Zn, Ni, Ti, V, Sn, Ge, Mn, Sr, and Ga.
A mammalian cell comprising multiple expression units which are integrated therein and comprise exogenous genes of interest which are integrated therein, wherein the number of said multiple expression units is 3 or more; and further comprising exogenous gap elements among said multiple expression units wherein said gap elements have chain lengths of 0.5 kbp or more and 20 kbp or less, and said gap elements are mutually different sequences, and homology between said mutually different gap elements is 95% or less.
A diatomaceous earth product, the product comprising diatomaceous earth having: a silica specific volume in a range of greater than 3.8 to 6.0; and a total alkali oxide content of less than 1.1 wt% when a permeability of the diatomaceous earth is 150 millidarcies to 1500 millidarcies, or a total alkali oxide content in a range of 1.1 wt% to 2.2 wt% when the permeability of the diatomaceous earth is in a range of greater than 1500 millidarcies to 3750 millidarcies, characterized in that the diatomaceous earth product has an EBC extractable iron content of 0.5 ppm to 2 ppm, and/or has an EBC extractable aluminum content of less than 1.5 ppm to below a limit of detection, and/or has an EBC extractable calcium content of less than 2.5 ppm. a silica specific volume in a range of greater than 3.8 to 6.0; and a total alkali oxide content of less than 1.1 wt% when a permeability of the diatomaceous earth is 150 millidarcies to 1500 millidarcies, or a total alkali oxide content in a range of 1.1 wt% to 2.2 wt% when the permeability of the diatomaceous earth is in a range of greater than 1500 millidarcies to 3750 millidarcies, characterized in that the diatomaceous earth product has an EBC extractable iron content of 0.5 ppm to 2 ppm, and/or has an EBC extractable aluminum content of less than 1.5 ppm to below a limit of detection, and/or has an EBC extractable calcium content of less than 2.5 ppm.
A use of a nitrogen monoxide cracking unit (100-103, 202, 207, 209) installed in a feed water system or a waste water system of a plant for decomposing nitrogen monoxide in a fluid by reacting nitrogen monoxide with ammonia in a gaseous phase and forming nitrogen and water, characterized in that a catalyst to accelerate decomposition of nitrogen monoxide is installed in the interior of the nitrogen monoxide cracking unit , and the nitrogen monoxide cracking unit is used to carry out the decomposition reaction of the nitrogen monoxide where the fluid pressure comes to be the lowest, i.e., before the sites where steam condenses as it enters a low-pressure turbine and feed water heaters of the plant.
A method, comprising: adding a first layer of anisotropic conductive film on a metal frame and at least one electronic component , the metal frame enclosing the electronic component, the metal frame and the electronic component being attached on a printed circuit board , wherein a sheet of metal foil is arranged on the first layer of anisotropic conductive film; applying a first pressure on the sheet in an area covering the at least one electronic component to fix the sheet on the first layer of anisotropic conductive film on the at least one electronic component; and applying a second pressure on the sheet in an area covering the metal frame to fix the sheet on the first layer of anisotropic conductive film on the metal frame, thereby bonding the first layer of anisotropic conductive film to form a thermal connection of the at least one electronic component to the metal frame via the sheet of metal foil. adding a first layer of anisotropic conductive film on a metal frame and at least one electronic component , the metal frame enclosing the electronic component, the metal frame and the electronic component being attached on a printed circuit board , wherein a sheet of metal foil is arranged on the first layer of anisotropic conductive film; applying a first pressure on the sheet in an area covering the at least one electronic component to fix the sheet on the first layer of anisotropic conductive film on the at least one electronic component; and applying a second pressure on the sheet in an area covering the metal frame to fix the sheet on the first layer of anisotropic conductive film on the metal frame, thereby bonding the first layer of anisotropic conductive film to form a thermal connection of the at least one electronic component to the metal frame via the sheet of metal foil.
An I/O system comprising: an I/O base having a first connector component; an I/O module selectively attachable to the I/O base and having a second connector component adapted to mate with the first connector component; and a locking actuator assembly for securing the I/O module to the I/O base; wherein the locking actuator assembly includes an actuator supported for axial and rotational movement by the I/O module, the actuator movable from an unlocked position having a first end of the actuator extending from a housing of the I/O module to a locked position wherein a second end of the actuator extends from the housing, the second end of the actuator including at least one flange (F) adapted to engage a corresponding surface of the I/O base when the actuator is rotated such that the at least one flange restricts withdrawal separations of the I/O module from the I/O base, wherein the I/O module includes a circuit board supporting the second connector component, wherein the actuator is supported by a bracket secured to the circuit board of the I/O module adjacent the second connector component. an I/O base having a first connector component; an I/O module selectively attachable to the I/O base and having a second connector component adapted to mate with the first connector component; and a locking actuator assembly for securing the I/O module to the I/O base; wherein the locking actuator assembly includes an actuator supported for axial and rotational movement by the I/O module, the actuator movable from an unlocked position having a first end of the actuator extending from a housing of the I/O module to a locked position wherein a second end of the actuator extends from the housing, the second end of the actuator including at least one flange (F) adapted to engage a corresponding surface of the I/O base when the actuator is rotated such that the at least one flange restricts withdrawal separations of the I/O module from the I/O base, wherein the I/O module includes a circuit board supporting the second connector component, wherein the actuator is supported by a bracket secured to the circuit board of the I/O module adjacent the second connector component.
A multi-layer structural component - with a layer structure comprising a plurality of layers arranged on top of one another in a stacking direction, - the layer structure comprising at least one fibre layer of a fibre material and of a thermoplastic binder, and at least one aluminium layer of aluminium or of an aluminium alloy, characterised in that - at least one aluminium layer of the layer structure has a reinforcing structure (50, 78, 94; 56, 74, 98)wherein the reinforcing structure is formed as a flanged edge . - with a layer structure comprising a plurality of layers arranged on top of one another in a stacking direction, - the layer structure comprising at least one fibre layer of a fibre material and of a thermoplastic binder, and at least one aluminium layer of aluminium or of an aluminium alloy, - at least one aluminium layer of the layer structure has a reinforcing structure (50, 78, 94; 56, 74, 98)wherein the reinforcing structure is formed as a flanged edge .
A device comprising: a control unit configured to receive information on a dose of a primary medicament, characterized in that said control unit is further configured to determine at least one value of a dose of a fluid agent based at least in part on said dose of said primary medicament and a therapeutic dose profile, wherein the therapeutic dose profile is a non-linear profile of the primary medicament and the fluid agent. a control unit configured to receive information on a dose of a primary medicament, characterized in that said control unit is further configured to determine at least one value of a dose of a fluid agent based at least in part on said dose of said primary medicament and a therapeutic dose profile, wherein the therapeutic dose profile is a non-linear profile of the primary medicament and the fluid agent.
A grasping system for placing an insert sheet between rows of folding boxes in a receptacle , the grasping system comprising a grasping head configured to grasp and pick up the insert sheet from a loading location , displace and position the insert sheet on a depositing surface in the receptacle, the grasping head having a support frame and a plurality of gripping elements , configured to adhere to the upper surface of the insert sheet , the gripping elements being connected to the support frame via a plurality of holding elements , which are movably mounted to the support frame, and wherein the holding elements and the gripping elements are movable in the vertical direction in relation to the support frame when the gripping elements contact the insert sheet or the depositing surface in the receptacle, and wherein the grasping system further comprises a control unit and sensing arrangement , the sensing arrangement being configured to sense a vertical displacement of the holding elements with respect to the support frame , and wherein the control unit is configured to receive information from the sensing arrangement and determine when the grasping head is brought into contact with an insert sheet or a depositing surface. the grasping head having a support frame and a plurality of gripping elements , configured to adhere to the upper surface of the insert sheet , the gripping elements being connected to the support frame via a plurality of holding elements , which are movably mounted to the support frame, and wherein the holding elements and the gripping elements are movable in the vertical direction in relation to the support frame when the gripping elements contact the insert sheet or the depositing surface in the receptacle, and wherein the grasping system further comprises a control unit and sensing arrangement , the sensing arrangement being configured to sense a vertical displacement of the holding elements with respect to the support frame , and wherein the control unit is configured to receive information from the sensing arrangement and determine when the grasping head is brought into contact with an insert sheet or a depositing surface.
A vehicle comprising: an internal cabin ; a first group of seats within a first row within the internal cabin ; a second group of seats within a second row within the internal cabin , wherein the first row is adjacent the second row; and an air curtain system within the internal cabin , wherein the air curtain system comprises one or more light emitting devices that are configured to emit light along at least a portion of one or more air curtains to indicate presence of the one or more air curtains by only being activated when the one or more air curtains are provided, wherein the air curtain system is configured to provide the one or more air curtains between the first row and the second row. an internal cabin ; a first group of seats within a first row within the internal cabin ; a second group of seats within a second row within the internal cabin , wherein the first row is adjacent the second row; and an air curtain system within the internal cabin , wherein the air curtain system comprises one or more light emitting devices that are configured to emit light along at least a portion of one or more air curtains to indicate presence of the one or more air curtains by only being activated when the one or more air curtains are provided, wherein the air curtain system is configured to provide the one or more air curtains between the first row and the second row.