mhurhangee/patent-ind-claim-en huggingface dataset:
A display device , comprising: a display panel ; a frame diposed on a rear surface of the display panel ; a plurality of binders (BD1, BD2) fixed to the rear surface of the display panel and disposed between the display panel and the frame ; and a plurality of coupling members (SC1, SC2) penetrating the frame and coupled to the plurality of binders (BD1, BD2), characterized in that : a plurality of buffer pads (PD) are disposed between the display panel and the frame , each of the plurality of buffer pads (PD) is disposed between two of the plurality of binders (BD1, BD2), and the thickness of the plurality of buffer pads (PD) changes depending on the interval between the display panel and the frame . a display panel ; a frame diposed on a rear surface of the display panel ; a plurality of binders (BD1, BD2) fixed to the rear surface of the display panel and disposed between the display panel and the frame ; and a plurality of coupling members (SC1, SC2) penetrating the frame and coupled to the plurality of binders (BD1, BD2), characterized in that : a plurality of buffer pads (PD) are disposed between the display panel and the frame , each of the plurality of buffer pads (PD) is disposed between two of the plurality of binders (BD1, BD2), and a plurality of buffer pads (PD) are disposed between the display panel and the frame , each of the plurality of buffer pads (PD) is disposed between two of the plurality of binders (BD1, BD2), and
Utility vehicle chassis having a chassis frame comprising axles with associated wheels , longitudinal members and cross members , of which a rear cross member (5.1) terminating the chassis frame at the rear end is part of a chassis frame rear end and the rear cross member (5.1) and at least one other cross member have lock elements (5.2) for locking a payload , in particular a container, and the chassis frame rear end comprising the rear cross member (5.1) is provided in the form of a compact rear end with an underride guard having a beam disposed underneath the rear cross member (5.1), and the rear cross member (5.1) with its locks (5.2) extends in at least certain areas above rear-end wheels and/or wheel covers associated with rear-end wheels , and the beam of the underride guard in certain areas is disposed directly behind rear-end wheels and/or behind wheel covers associated with the rear-end wheels , and the beam of the underride guard is connected via at least three connecting elements to the rear cross member (5.1), characterised in that at least two of the connecting elements act on the beam in a lateral outer region of the rear frame and the beam underride guard and at least one other connecting element of the rear cross member is connected to the beam of the underride guard in a middle region of the beam of the underride guard.
A method for identifying whether a patient with acute decompensated heart failure (ADHF) exhibits a hypercoagulable state comprising i) determining thrombin generation capacity from a blood sample that has been obtained from the patient, ii) determining the level of at least one soluble biomarker of endothelial dysfunction, iii) comparing the capacity determined at step i) and the level determined at step ii) with their respective predetermined reference values and iv) concluding that the patient exhibits a hypercoagulable state when both the thrombin generation capacity and the level of soluble marker of endothelial dysfunction are higher than their respective predetermined reference values wherein: - the thrombin generation capacity is determined by a calibrated automated thrombogram (CAT) assay and - the at least one soluble biomarker of endothelial dysfunction is selected from the group consisting of von Willebrand factor, factor VIII, endothelial protein C receptor, tissue factor pathway inhibitor, endothelium-derived extracellular vesicles and circulating DNA-histone complexes. - the thrombin generation capacity is determined by a calibrated automated thrombogram (CAT) assay and - the at least one soluble biomarker of endothelial dysfunction is selected from the group consisting of von Willebrand factor, factor VIII, endothelial protein C receptor, tissue factor pathway inhibitor, endothelium-derived extracellular vesicles and circulating DNA-histone complexes.
An aerosolisable product comprising (a) an aerosol forming material; and (b) a substrate material, wherein the substrate material is at least calcium carbonate; wherein the total surface area of the calcium carbonate present in the aerosolisable product is at least 25m 2 per gram of aerosol forming material present in the aerosolisable product. (a) an aerosol forming material; and (b) a substrate material, wherein the substrate material is at least calcium carbonate; wherein the total surface area of the calcium carbonate present in the aerosolisable product is at least 25m 2 per gram of aerosol forming material present in the aerosolisable product.
A straddled vehicle comprising: a vehicle body frame ; a traveling drive device supported by the vehicle body frame ; at least one wheel supported by the vehicle body frame ; an electronically controlled suspension provided between the vehicle body frame and the wheel ; a power source configured to supply power; a main switch configured to turn on and off supply of power of the power source ; a vehicle speed detection device configured to detect a vehicle speed; an operation detection device configured to detect whether the traveling drive device is running; and a control device configured to control a damping force of the electronically controlled suspension , characterised by the control device being configured to when the main switch is on, the vehicle speed detected by the vehicle speed detection device is equal to or lower than a preset first threshold, and the operation detection device detects that the traveling drive device is not running, control the damping force of the electronically controlled suspension by supplying power to the electronically controlled suspension such that the damping force is a first value, and when the main switch is on, the vehicle speed detected by the vehicle speed detection device is equal to or lower than the first threshold, and the operation detection device detects that the traveling drive device is running, control the damping force of the electronically controlled suspension such that the damping force is a second value that is larger than the first value. a vehicle body frame ; a traveling drive device supported by the vehicle body frame ; at least one wheel supported by the vehicle body frame ; an electronically controlled suspension provided between the vehicle body frame and the wheel ; a power source configured to supply power; a main switch configured to turn on and off supply of power of the power source ; a vehicle speed detection device configured to detect a vehicle speed; an operation detection device configured to detect whether the traveling drive device is running; and a control device configured to control a damping force of the electronically controlled suspension , characterised by the control device being configured to when the main switch is on, the vehicle speed detected by the vehicle speed detection device is equal to or lower than a preset first threshold, and the operation detection device detects that the traveling drive device is not running, control the damping force of the electronically controlled suspension by supplying power to the electronically controlled suspension such that the damping force is a first value, and when the main switch is on, the vehicle speed detected by the vehicle speed detection device is equal to or lower than the first threshold, and the operation detection device detects that the traveling drive device is running, control the damping force of the electronically controlled suspension such that the damping force is a second value that is larger than the first value.
A haulm cutting apparatus (2; 102) comprising lateral and vertical guiding means or surfaces (7'; 122, 124) and a first, rotatable shear (11; 111) rotatable around an axis of rotation extending in a direction with a vertical component, and further comprising a counter shear (12; 12a; 112) for cooperation with the first, rotatable shear (11; 111), wherein the first, rotatable shear(11; 111) and counter shear (12; 12a; 112) are positioned in a side-by-side relationship relative to a direction of travel during operation, character- ized in that at least one of the first, rotatable shear (11; 111) and the counter shear (12; 112) comprise a circular disc with a recessed rim portion (13, 13'; 113, 113').
A control method for switching a cylinder operation mode of a compressor, characterized by comprising: determining the compressor needs to be switched from a single-cylinder operation mode to a double-cylinder operation mode (S101) ; deciding whether a system pressure difference value is in a first preset system pressure difference value interval (S102) ; adjusting system control parameters to make the system pressure difference value to be in the first preset system pressure difference value interval (S103) under a condition that the system pressure difference value is not in the first preset system pressure difference value interval; and controlling the compressor to be switched from the single-cylinder operation mode to the double-cylinder operation mode (S104) . determining the compressor needs to be switched from a single-cylinder operation mode to a double-cylinder operation mode (S101) ; deciding whether a system pressure difference value is in a first preset system pressure difference value interval (S102) ; adjusting system control parameters to make the system pressure difference value to be in the first preset system pressure difference value interval (S103) under a condition that the system pressure difference value is not in the first preset system pressure difference value interval; and controlling the compressor to be switched from the single-cylinder operation mode to the double-cylinder operation mode (S104) .
A method of forming a ceramic matrix composite component having an internal cooling circuit, the method comprising: wrapping at least a first sheet (22; 122) around a first mandrel (20; 120); wrapping at least a second sheet (22; 122) around a second mandrel (20; 120); creating a first plurality of holes (26; 126) in the first sheet (22; 122) corresponding to a plurality of openings (24; 124) in the first mandrel (20; 120); creating a second plurality of holes (26; 126) in the second sheet (22; 122) corresponding to a plurality of openings (24; 124) in the second mandrel (20; 120); aligning the first mandrel (20; 120) and the second mandrel (20; 120); wrapping at least a third sheet (22; 122) around both the first mandrel (20; 120) and second mandrel (20; 120) to form a preform (28; 128), the preform (28; 128) comprising each of the first sheet (22; 122), the second sheet (22; 122), and the third sheet (22; 122); and densifying the preform (28; 128), wherein the first sheet (22; 122), second sheet (22; 122), and third sheet (22; 122) are formed from a ceramic fiber material; characterized in that the step of aligning the first mandrel (20; 120) and the second mandrel (20; 120) is carried out such that the first plurality of holes (26; 126) face and are aligned with the second plurality of holes (26; 126) forming a corresponding plurality of open channels (30; 130). wrapping at least a first sheet (22; 122) around a first mandrel (20; 120); wrapping at least a second sheet (22; 122) around a second mandrel (20; 120); creating a first plurality of holes (26; 126) in the first sheet (22; 122) corresponding to a plurality of openings (24; 124) in the first mandrel (20; 120); creating a second plurality of holes (26; 126) in the second sheet (22; 122) corresponding to a plurality of openings (24; 124) in the second mandrel (20; 120); aligning the first mandrel (20; 120) and the second mandrel (20; 120); wrapping at least a third sheet (22; 122) around both the first mandrel (20; 120) and second mandrel (20; 120) to form a preform (28; 128), the preform (28; 128) comprising each of the first sheet (22; 122), the second sheet (22; 122), and the third sheet (22; 122); and densifying the preform (28; 128), wherein the first sheet (22; 122), second sheet (22; 122), and third sheet (22; 122) are formed from a ceramic fiber material; characterized in that the step of aligning the first mandrel (20; 120) and the second mandrel (20; 120) is carried out such that the first plurality of holes (26; 126) face and are aligned with the second plurality of holes (26; 126) forming a corresponding plurality of open channels (30; 130).
An image processing device comprising: an auxiliary masking unit configured to process a background image into which a latent image is embedded, to obtain an effect to conceal the latent image; a color-matching masking unit configured to perform color conversion of the background image to obtain a color-matching masking effect to conceal the latent image; and a latent image embedding unit configured to embed the latent image in the background image processed and converted by the auxiliary masking unit and the color-matching masking unit , respectively, to generate an image embedded with the latent image; characterised in that the color-matching masking unit is configured to add a gray component as the color conversion of the background image; wherein the color-matching masking unit is configured to determine the gray component according to a density of black of the latent image; wherein the latent image embedding unit is configured to change an amount of generation of a black component by replacing the gray component with the black component upon determination if a pixel value of the latent image at a pixel position identical to a position of a reference pixel of the masked background image is grater than 0, to embed the latent image using a black colorant. an auxiliary masking unit configured to process a background image into which a latent image is embedded, to obtain an effect to conceal the latent image; a color-matching masking unit configured to perform color conversion of the background image to obtain a color-matching masking effect to conceal the latent image; and a latent image embedding unit configured to embed the latent image in the background image processed and converted by the auxiliary masking unit and the color-matching masking unit , respectively, to generate an image embedded with the latent image; characterised in that the color-matching masking unit is configured to add a gray component as the color conversion of the background image; wherein the color-matching masking unit is configured to determine the gray component according to a density of black of the latent image; wherein the latent image embedding unit is configured to change an amount of generation of a black component by replacing the gray component with the black component upon determination if a pixel value of the latent image at a pixel position identical to a position of a reference pixel of the masked background image is grater than 0, to embed the latent image using a black colorant.
A method for implementing a fault-tolerant quantum operation using a quantum information system comprising a cavity and an ancilla transmon dispersively coupled to the cavity, the method comprising: applying microwave radiation to the cavity to encode a logical qubit using more than two energy levels of the cavity ; applying microwave radiation to the ancilla transmon to encode information using more than two energy levels of the ancilla transmon ; and applying microwave radiation to the ancilla transmon : to adjust a first frequency shift applied to the cavity by the ancilla transmon when the ancilla transmon is in a first excited state so that the first frequency shift is equal to a second frequency shift applied to the cavity by the ancilla transmon when the ancilla transmon is in a second excited state, the adjustment of the first frequency shift creating an interaction between the cavity and the ancilla transmon that decouples at least one error type in the ancilla transmon from the cavity and reduces a probability that the logical qubit encoded in the cavity will acquire a phase error. applying microwave radiation to the cavity to encode a logical qubit using more than two energy levels of the cavity ; applying microwave radiation to the ancilla transmon to encode information using more than two energy levels of the ancilla transmon ; and applying microwave radiation to the ancilla transmon : to adjust a first frequency shift applied to the cavity by the ancilla transmon when the ancilla transmon is in a first excited state so that the first frequency shift is equal to a second frequency shift applied to the cavity by the ancilla transmon when the ancilla transmon is in a second excited state, the adjustment of the first frequency shift creating an interaction between the cavity and the ancilla transmon that decouples at least one error type in the ancilla transmon from the cavity and reduces a probability that the logical qubit encoded in the cavity will acquire a phase error.
A process for synthesizing a targeted imaging agent comprising a targeting group and an imaging agent comprising a chelated metal, which process comprises: providing a pre-formed α-amino acid imaging agent consisting of an α-amino acid molecule in which one of the α-amine and the α-acid is protected, the other of the α-amine and the α-acid is free, and the side chain is modified by conjugation to an imaging agent comprising said chelated metal; wherein the α-amino acid molecule is lysine; providing a targeting group containing one or more amine, sulfide or carboxylic acid groups; and coupling the pre-formed α-amino acid imaging agent to the targeting group through said one or more amine, sulfide, or carboxylic acid groups in said targeting group, in a manner to provide a targeted imaging agent. providing a pre-formed α-amino acid imaging agent consisting of an α-amino acid molecule in which one of the α-amine and the α-acid is protected, the other of the α-amine and the α-acid is free, and the side chain is modified by conjugation to an imaging agent comprising said chelated metal; wherein the α-amino acid molecule is lysine; providing a targeting group containing one or more amine, sulfide or carboxylic acid groups; and coupling the pre-formed α-amino acid imaging agent to the targeting group through said one or more amine, sulfide, or carboxylic acid groups in said targeting group, in a manner to provide a targeted imaging agent.
A method comprising: receiving initial input at a client, wherein the input requests a digital assistant application on the client to perform a task; sending the initial input to a service operating as defined in any of claims 7 to 11; receiving a task frame for the task from the service, the task frame including a status of the task and one or more required parameters to complete the task; processing the task frame to determine a next action; if processing the task frame determines additional input is required, prompting a user for additional input; receiving the additional input; and updating one or more values for one or more task frame parameters based on the received additional input; and if processing the task frame determines no additional input is required, completing the task; performing , by the client, the determined next action to complete the task; updating the status of the parameters and the status of the task in the task frame; and sending the updated task frame to the service, wherein receiving a task frame, processing the task frame, performing the determined next action, updating the task frame, and sending the updated task frame is performed until the task is completed. receiving initial input at a client, wherein the input requests a digital assistant application on the client to perform a task; sending the initial input to a service operating as defined in any of claims 7 to 11; receiving a task frame for the task from the service, the task frame including a status of the task and one or more required parameters to complete the task; processing the task frame to determine a next action; if processing the task frame determines additional input is required, prompting a user for additional input; receiving the additional input; and updating one or more values for one or more task frame parameters based on the received additional input; and if processing the task frame determines no additional input is required, completing the task; performing , by the client, the determined next action to complete the task; updating the status of the parameters and the status of the task in the task frame; and sending the updated task frame to the service, wherein receiving a task frame, processing the task frame, performing the determined next action, updating the task frame, and sending the updated task frame is performed until the task is completed.
A method comprising: periodically transmitting to one or more wireless devices, by a first device , a first message over a wireless network interface of the first device connected to a local network; characterized by further comprising: listening, by the first device , over a wired network interface of the first device , for the first message transmitted by the first device ; and when the first device at least receives the first message over the wired network interface from at least one of the one or more wireless devices connected to the local network, determining, by the first device , that the first device has a usable wired connection with one of an access point , router, or bridge; in response to the determination, transmitting, by the first device to the at least one wireless device over the wireless network interface , a second message including an indication that the at least one wireless device can change its network configuration to a mesh network that utilizes the wired network interface of the first device to communicate with the access point, router, or bridge; wherein the indication causes the at least one wireless device to change its network configuration from a star topology in which the at least one wireless device is directly connected to the access point to the mesh network configuration in which the at least one wireless device communicates with the access point via the wired connection of the first device . listening, by the first device , over a wired network interface of the first device , for the first message transmitted by the first device ; and when the first device at least receives the first message over the wired network interface from at least one of the one or more wireless devices connected to the local network, determining, by the first device , that the first device has a usable wired connection with one of an access point , router, or bridge; in response to the determination, transmitting, by the first device to the at least one wireless device over the wireless network interface , a second message including an indication that the at least one wireless device can change its network configuration to a mesh network that utilizes the wired network interface of the first device to communicate with the access point, router, or bridge; wherein the indication causes the at least one wireless device to change its network configuration from a star topology in which the at least one wireless device is directly connected to the access point to the mesh network configuration in which the at least one wireless device communicates with the access point via the wired connection of the first device .