mhurhangee/ep-ind-claims huggingface dataset:
Coupling for connecting two fluid-conducting lines (2, 3), wherein a first one of the lines is associated with a first coupling member and a second one of the lines is associated with a second coupling member that is connectable to the first coupling member, wherein a check valve and a leakage protection are provided in the coupling, the leakage protection releasing a flow connection through at least one of the coupling members (4, 5) only when the coupling members (4, 5) are connected, characterised in that the check valve has a check valve element and a check valve seat, the check valve element being arranged in the first coupling member and the check valve seat being formed by the second coupling member.
A mobile robot comprising: a main circuit board; a multiplexing auxiliary circuit board configured to send a data package representing a received sensor signal to the main circuit board; an array of proximity sensors distributed along a front periphery of the mobile robot, each proximity sensor including at least one infrared emitter and at least one infrared detector, characterized in that the mobile robot comprises a communication line connecting the multiplexing auxiliary circuit board to the main circuit board; and a bumper housing including two or more mating concave receptacles (133a, 133b), the receptacles (133a, 133b) mating along a closed rim and sealed along that rim to enclose the array of proximity sensors and the multiplexing auxiliary circuit board, the bumper housing including the communication line exiting through a single sealed aperture. a main circuit board; a multiplexing auxiliary circuit board configured to send a data package representing a received sensor signal to the main circuit board; an array of proximity sensors distributed along a front periphery of the mobile robot, each proximity sensor including at least one infrared emitter and at least one infrared detector, characterized in that the mobile robot comprises a communication line connecting the multiplexing auxiliary circuit board to the main circuit board; and a bumper housing including two or more mating concave receptacles (133a, 133b), the receptacles (133a, 133b) mating along a closed rim and sealed along that rim to enclose the array of proximity sensors and the multiplexing auxiliary circuit board, the bumper housing including the communication line exiting through a single sealed aperture.
An infusion therapy medical device, comprising: a fluid pathway; and a septum actuator disposed within the fluid pathway, the septum actuator having a fluid-exposed surface within the fluid pathway, the septum actuator further comprising an anti-pathogenic material; being characterised in that: the anti-pathogenic material is configured to transfer at least in part to an interfacing surface within the device following activation of the septum actuator. a fluid pathway; and a septum actuator disposed within the fluid pathway, the septum actuator having a fluid-exposed surface within the fluid pathway, the septum actuator further comprising an anti-pathogenic material; being characterised in that: the anti-pathogenic material is configured to transfer at least in part to an interfacing surface within the device following activation of the septum actuator. the anti-pathogenic material is configured to transfer at least in part to an interfacing surface within the device following activation of the septum actuator.
A communications method based on a social application, comprising: acquiring location information of a current terminal, on which a first user has logged in to a specified application, and acquiring information of at least one second user according to the location information of the current terminal and a specified application identifier of the specified application, wherein the at least one second user has logged in to the specified application, and a geographical location of the at least one second user is in a preset range of the current terminal; determining, when receiving a first selection instruction for selecting information of a second user from the information of the at least one second user, the second user corresponding to the first selection instruction as a target user, and acquiring a communication message to be sent, wherein the communication message carries a first user identifier of the first user, a target user identifier of the target user, and second message content, and the first user identifier of the first user is an identifier which the first user has used to log in to the social application; and sending the communication message to a specified application server when receiving a sending instruction, so that the specified application server sends the first user identifier and the second message content to the target user according to the target user identifier.
Process for producing a polymer, comprising the steps of: A) depositing a free-radically crosslinkable resin to obtain a free-radically crosslinked resin and B) treating the free-radically crosslinked resin under conditions sufficient to trigger a chemical reaction different than free-radical crosslinking in the free-radically crosslinked resin, characterized in that the free-radically crosslinkable resin comprises a curable component in which NCO groups, olefinic C=C double bonds and epoxide groups are present, the chemical reaction in the free-radically crosslinked resin different than free-radical crosslinking is the reaction of NCO groups and epoxide groups to form oxazolidinone groups, the treating of the free-radically crosslinked resin under conditions sufficient to trigger a chemical reaction different than free-radical crosslinking in the free-radically crosslinked resin comprises heating to a temperature of ≥ 60°C, and the process is an additive production process for producing an object from a precursor, with the precursor being obtained in step A) and the object being obtained in step B). A) depositing a free-radically crosslinkable resin to obtain a free-radically crosslinked resin and B) treating the free-radically crosslinked resin under conditions sufficient to trigger a chemical reaction different than free-radical crosslinking in the free-radically crosslinked resin, characterized in that the free-radically crosslinkable resin comprises a curable component in which NCO groups, olefinic C=C double bonds and epoxide groups are present, the chemical reaction in the free-radically crosslinked resin different than free-radical crosslinking is the reaction of NCO groups and epoxide groups to form oxazolidinone groups, the treating of the free-radically crosslinked resin under conditions sufficient to trigger a chemical reaction different than free-radical crosslinking in the free-radically crosslinked resin comprises heating to a temperature of ≥ 60°C, and the process is an additive production process for producing an object from a precursor, with the precursor being obtained in step A) and the object being obtained in step B). the free-radically crosslinkable resin comprises a curable component in which NCO groups, olefinic C=C double bonds and epoxide groups are present, the chemical reaction in the free-radically crosslinked resin different than free-radical crosslinking is the reaction of NCO groups and epoxide groups to form oxazolidinone groups, the treating of the free-radically crosslinked resin under conditions sufficient to trigger a chemical reaction different than free-radical crosslinking in the free-radically crosslinked resin comprises heating to a temperature of ≥ 60°C, and the process is an additive production process for producing an object from a precursor, with the precursor being obtained in step A) and the object being obtained in step B).
A method of processing an image signal comprising image and depth information for the image, comprising: - performing foreground/background segmentation on the image based on the depth information, resulting in a foreground mask and a background mask, - creating an area around a segmentation transition in said segmented image, and - performing foreground/background dependent processing on the pixel data of the image in the area, characterized in that the method is a method of reducing artifacts in the image, and - the area is determined so as to include artifacts (25,26) caused by video compression and/or image data which is misaligned with reference to the depth information, and said foreground/background dependent processing comprises - inpainting background utilizing background color information from the background mask for correction of the artifacts in the area around the foreground mask and inpainting foreground utilizing foreground color information from the foreground mask for correction of the artifacts in the area inside the foreground mask, and - generating a processed image by using the image and replacing pixel data in the area by the inpainted background and/or foreground. - performing foreground/background segmentation on the image based on the depth information, resulting in a foreground mask and a background mask, - creating an area around a segmentation transition in said segmented image, and - performing foreground/background dependent processing on the pixel data of the image in the area, - the area is determined so as to include artifacts (25,26) caused by video compression and/or image data which is misaligned with reference to the depth information, - inpainting background utilizing background color information from the background mask for correction of the artifacts in the area around the foreground mask and inpainting foreground utilizing foreground color information from the foreground mask for correction of the artifacts in the area inside the foreground mask, and - generating a processed image by using the image and replacing pixel data in the area by the inpainted background and/or foreground.
A device for turning stacks of sheet-shaped material comprising a device for transporting the stacks into a pivot fork, a turning unit, said pivot fork having at least one upper gripper, at least one lower gripper and at least one stack stop, said pivot fork having one end with an opening for introducing the stacks and being pivotably supported at the other end around a horizontal pivot shaft extending transverse to said introduction direction of the stacks, and said pivot shaft being disposed off-center relative to said pivot fork, characterized in that the lower grippers and/or the upper grippers are disposed to be freely positionable in a direction traverse to the direction of the introduction direction of the stacks.
A lithographic printing plate precursor including a support and a coating comprising (i) a photopolymerisable layer including a polymerisable compound, a borate compound and a photoinitiator, and (ii) a toplayer provided above the photopolymerisable layer; characterized in that the toplayer has a thickness comprised between 0.1 g/m 2 and 1.75 g/m 2 and includes an infrared absorbing compound which includes a thermocleavable group which transforms into a group which is a stronger electron-donor upon exposure to heat and/or IR radiation, and is capable of forming a print-out image upon exposure to heat and/or IR radiation.
A continuous inkjet printer, comprising: - a cabinet, - at least two heat generating components (10, 34, 42) located within said cabinet, each of said heat generating components generating heat when the printer is in operation, - an air circulation system to circulate an air flow within the cabinet to evacuate heat from the heat generating components, said air circulation system comprising at least one air inlet (2, 4, 62, 64) for introducing ambient air into the cabinet, an air outlet for evacuating air outside of the cabinet, an air flow path extending between the air inlet and the air outlet and an air circulation device, characterized in that the flow path is separated in at least two distinct flow paths (3, 5, 7), wherein at least a first air flow path accommodates a first heat generating component and a second air flow path accommodates a second heat generating component (34, 42), wherein the air enters said first air flow path, respectively second air flow path, upstream of the heat generating component of the second air flow path, respectively of said first air flow path, so that the air of the first, respectively second, air flow path has not circulated along the heat generating component of the second, respectively the first, air flow path. - a cabinet, - at least two heat generating components (10, 34, 42) located within said cabinet, each of said heat generating components generating heat when the printer is in operation, - an air circulation system to circulate an air flow within the cabinet to evacuate heat from the heat generating components, said air circulation system comprising at least one air inlet (2, 4, 62, 64) for introducing ambient air into the cabinet, an air outlet for evacuating air outside of the cabinet, an air flow path extending between the air inlet and the air outlet and an air circulation device, characterized in that the flow path is separated in at least two distinct flow paths (3, 5, 7), wherein at least a first air flow path accommodates a first heat generating component and a second air flow path accommodates a second heat generating component (34, 42), wherein the air enters said first air flow path, respectively second air flow path, upstream of the heat generating component of the second air flow path, respectively of said first air flow path, so that the air of the first, respectively second, air flow path has not circulated along the heat generating component of the second, respectively the first, air flow path. characterized in that the flow path is separated in at least two distinct flow paths (3, 5, 7), wherein at least a first air flow path accommodates a first heat generating component and a second air flow path accommodates a second heat generating component (34, 42), wherein the air enters said first air flow path, respectively second air flow path, upstream of the heat generating component of the second air flow path, respectively of said first air flow path, so that the air of the first, respectively second, air flow path has not circulated along the heat generating component of the second, respectively the first, air flow path.
A method for registering a central control unit belonging to a home automation installation; the method being executed by a user terminal of a home automation installation, and comprising: i. Establishing (ELRT2) a connection between the user terminal and a first central control unit; the method being characterized in that it further comprises: ii. Creating (ELRT3) an installation identifier (StID) of the home automation installation; iii. Sending (ELRT4) a discovery message; iv. Receiving (ELRT5, ELRT8) a first signaling message (MLRSU) transmitted by the first central control unit (U, U1, U2) for the installation in connection with a first unique identifier of said first central control unit (U, U1, U2), v. Registering (ELRT6, ELRT9) an attachment of the first unique identifier of the first central control unit (U, U1, U2) to the installation identifier (StID). i. Establishing (ELRT2) a connection between the user terminal and a first central control unit; ii. Creating (ELRT3) an installation identifier (StID) of the home automation installation; iii. Sending (ELRT4) a discovery message; iv. Receiving (ELRT5, ELRT8) a first signaling message (MLRSU) transmitted by the first central control unit (U, U1, U2) for the installation in connection with a first unique identifier of said first central control unit (U, U1, U2), v. Registering (ELRT6, ELRT9) an attachment of the first unique identifier of the first central control unit (U, U1, U2) to the installation identifier (StID).
A method for retrieving transmit opportunity, TXOP, control in reverse direction grant, RDG, comprising: obtaining, by a reverse direction responder, RD responder, TXOP control granted by a reverse direction initiator, RD Initiator; when the RD responder enables a multi-user multiple-input multiple-output, MU-MIMO, mode and the RD responder concurrently sends a frame to a plurality of stations in the TXOP period, said plurality of stations including the RD Initiator, requiring only the RD Initiator to send a block acknowledgement to enable the RD Initiator to retrieve the TXOP control. obtaining, by a reverse direction responder, RD responder, TXOP control granted by a reverse direction initiator, RD Initiator; when the RD responder enables a multi-user multiple-input multiple-output, MU-MIMO, mode and the RD responder concurrently sends a frame to a plurality of stations in the TXOP period, said plurality of stations including the RD Initiator, requiring only the RD Initiator to send a block acknowledgement to enable the RD Initiator to retrieve the TXOP control.
A heat-resistant resin composite comprising a matrix resin and reinforcing fibers dispersed in the matrix resin, wherein the matrix resin comprises a heat-resistant thermoplastic polymer and a polyester-based polymer, the heat-resistant thermoplastic polymer having a glass transition temperature of 100°C or higher, and the polyester-based polymer comprising a terephthalic acid unit and an isophthalic acid unit in a copolymerization ratio (molar ratio) of / = 90/10 to 40/60; and the heat-resistant resin composite comprises the heat-resistant thermoplastic polymer in a proportion of 30 to 80 wt% based on the composite.
A computer implemented method for health calculations, the method comprising: receiving a health input from a wearable device worn by a user, the health input including one or more measurements from one or more health sensors, and wherein the health input includes movement data; obtaining location-based information associated with the wearable device; segmenting the movement data into one or more segments based on characteristics of the movement data by analyzing and identifying the movement data within temporal ranges that have similar amplitudes and/or frequencies; categorizing the one or more segments as matching one or more activities; refining the categorization of the segmented movement data based on the location-based information, which comprises disregarding or eliminating certain segments of the movement data representing false positive secenarios from the calculation of the health parameter based on the location-based information, wherein a false positive scenario represents a scenario where the user is performing an activity with an amplitude or frequency profile that matches that of another activity; and calculating a health parameter based on the refined categorization of the movement data, wherein the health parameter includes one of distance travelled, calorie expenditure, heart rate, blood pressure, hydration percentage, rest state time, and respiration. receiving a health input from a wearable device worn by a user, the health input including one or more measurements from one or more health sensors, and wherein the health input includes movement data; obtaining location-based information associated with the wearable device; segmenting the movement data into one or more segments based on characteristics of the movement data by analyzing and identifying the movement data within temporal ranges that have similar amplitudes and/or frequencies; categorizing the one or more segments as matching one or more activities; refining the categorization of the segmented movement data based on the location-based information, which comprises disregarding or eliminating certain segments of the movement data representing false positive secenarios from the calculation of the health parameter based on the location-based information, wherein a false positive scenario represents a scenario where the user is performing an activity with an amplitude or frequency profile that matches that of another activity; and calculating a health parameter based on the refined categorization of the movement data, wherein the health parameter includes one of distance travelled, calorie expenditure, heart rate, blood pressure, hydration percentage, rest state time, and respiration.
A laundry treating apparatus comprising: a cabinet including a front panel having a detergent opening defined therein; a tub disposed inside the cabinet; a drum rotatably disposed inside the tub; and a detergent storage unit retracting into the cabinet through the detergent opening, wherein detergent to be supplied to the drum is stored in the detergent storage unit, wherein the front panel has an opening extension portion extending from a periphery of the detergent opening toward an inside of the cabinet, wherein the apparatus further comprises a protective casing disposed inside the cabinet and coupled to the opening extension portion, wherein the protective casing surrounds at least a portion of the detergent storage unit retracting into the cabinet through the detergent opening, wherein the protective casing includes an opening protection wall configured to cover an inner face of the opening extension portion facing toward the detergent opening to protect the opening extension portion, characterized in that the opening protection wall covers the inner face of the opening extension portion so that the protective casing surrounds the end of the opening extension portion. a cabinet including a front panel having a detergent opening defined therein; a tub disposed inside the cabinet; a drum rotatably disposed inside the tub; and a detergent storage unit retracting into the cabinet through the detergent opening, wherein detergent to be supplied to the drum is stored in the detergent storage unit, wherein the front panel has an opening extension portion extending from a periphery of the detergent opening toward an inside of the cabinet, wherein the apparatus further comprises a protective casing disposed inside the cabinet and coupled to the opening extension portion, wherein the protective casing surrounds at least a portion of the detergent storage unit retracting into the cabinet through the detergent opening, wherein the protective casing includes an opening protection wall configured to cover an inner face of the opening extension portion facing toward the detergent opening to protect the opening extension portion, characterized in that the opening protection wall covers the inner face of the opening extension portion so that the protective casing surrounds the end of the opening extension portion.
The use of a copolymer comprising the following monomers: 20-50 % (w/w) of methyl methacrylate; 40-80 % (w/w) of one or more vinylaromatic(s); and optionally 0-10 % (w/w) of one or more aliphatic vinyl(s) for producing a product or a component part thereof, enabling light transmittance in the visible spectrum and in the ultraviolet spectrum, wherein said product has a light transmission of at least 50 % of ultraviolet light at a wavelength range of between 250 nm and 370 nm measured at a thickness of 3.2 mm. 20-50 % (w/w) of methyl methacrylate; 40-80 % (w/w) of one or more vinylaromatic(s); and optionally 0-10 % (w/w) of one or more aliphatic vinyl(s) for producing a product or a component part thereof, enabling light transmittance in the visible spectrum and in the ultraviolet spectrum,