mhurhangee/ep-ind-claims huggingface dataset:
Identification kit for identifying a living creature, such as an animal or a plant, containing at least the following elements: - a mark which can be pierced through the organic tissue of the creature and thus can be attached to the creature so as to mark it, consisting of a male tag part and a female tag part, with a male elongated projection and a complementary female duct respectively, which can be inextricably connected to one another in the tissue of the creature by piercing it and by inserting the male elongated projection in the female duct; and, - a biopsy kit for taking a biopsy containing a capsule and a stopper, making it possible, by joining the male and female tag part (7,8), to insert a biopsy of the tissue of the creature in the capsule, to put the stopper in a fitting manner in the capsule and to separate the sealed biopsy kit from the mark; whereby the female tag part is provided with a perforation opening in the female duct and which stretches in the extension thereof and whereby the head of the male elongated projection has a shape which is complementary to the perforation, such that after the male tag part and the female tag part have been joined and connected, the perforation is sealed tightly by the head of the longitudinal protrusion, and whereby the capsule is formed of a separate part which can be inserted in the female duct and whereby, by joining the male tag part and the female tag part, the capsule can be pushed through the perforation, characterised in that the capsule is provided with a part having a sleeve wall which extends between a sealed capsule tip and a sealable capsule tip, whereby the sleeve wall has a narrowed wall part near the sealed capsule tip and a widened wall part near the sealable capsule tip, which wall parts (42,43) are connected by means of an intermediary wall part, whereby the narrowed wall part has an outer diameter corresponding to the inner diameter (E') of the perforation in the female tag part and the widened wall part has an outer diameter corresponding to the inner diameter (F') of the duct in the female tag part. - a mark which can be pierced through the organic tissue of the creature and thus can be attached to the creature so as to mark it, consisting of a male tag part and a female tag part, with a male elongated projection and a complementary female duct respectively, which can be inextricably connected to one another in the tissue of the creature by piercing it and by inserting the male elongated projection in the female duct; and, - a biopsy kit for taking a biopsy containing a capsule and a stopper, making it possible, by joining the male and female tag part (7,8), to insert a biopsy of the tissue of the creature in the capsule, to put the stopper in a fitting manner in the capsule and to separate the sealed biopsy kit from the mark;
Radar sensor head for a radar system, comprising: - at least one transmitting antenna for generating radar waves and at least one receiving antenna for receiving radar waves; - an interface for connecting the radar sensor head to a data line; characterized by - an identification unit for authenticating the radar sensor head with respect to a central control device arranged outside the radar sensor head, - wherein a sensor ID is transmitted by means of the identification unit, and - wherein the identification unit is configured to initiate a download of calibration data for the sensor head from a server to the central control device when authenticating the radar sensor head with respect to the central control device, - and to activate the radar sensor head during the download, - wherein the calibration data are at least one of the following: typical noise level, antenna properties, amplitudes/phase deviations, position of the antenna elements, temperature properties, temperature response. - at least one transmitting antenna for generating radar waves and at least one receiving antenna for receiving radar waves; - an interface for connecting the radar sensor head to a data line; characterized by - an identification unit for authenticating the radar sensor head with respect to a central control device arranged outside the radar sensor head, - wherein a sensor ID is transmitted by means of the identification unit, and - wherein the identification unit is configured to initiate a download of calibration data for the sensor head from a server to the central control device when authenticating the radar sensor head with respect to the central control device, - and to activate the radar sensor head during the download, - wherein the calibration data are at least one of the following: typical noise level, antenna properties, amplitudes/phase deviations, position of the antenna elements, temperature properties, temperature response.
A method of fining glass, the method comprising: supplying input molten glass into a fining chamber of a fining vessel, the input molten glass combining with a molten glass bath contained within the fining chamber and introducing entrained gas bubbles into the molten glass bath, the input molten glass having a density and a concentration of gas bubbles; flowing the molten glass bath through the fining chamber in a flow direction, the molten glass bath having an undercurrent that flows beneath a skimmer, which is partially submerged in the molten glass bath, and through a submerged passageway defined in part by the skimmer; and introducing a carrier gas into the undercurrent of the molten glass bath directly beneath the skimmer, the carrier gas comprising suspended particles of one or more fining agents. supplying input molten glass into a fining chamber of a fining vessel, the input molten glass combining with a molten glass bath contained within the fining chamber and introducing entrained gas bubbles into the molten glass bath, the input molten glass having a density and a concentration of gas bubbles; flowing the molten glass bath through the fining chamber in a flow direction, the molten glass bath having an undercurrent that flows beneath a skimmer, which is partially submerged in the molten glass bath, and through a submerged passageway defined in part by the skimmer; and introducing a carrier gas into the undercurrent of the molten glass bath directly beneath the skimmer, the carrier gas comprising suspended particles of one or more fining agents.
A waveguide arrangement for coupling a plurality of modules to a source, the waveguide arrangement comprising: a continuous waveguide configured for guiding a signal provided by the source; and a plurality of interfaces, each interface being associated with one of the plurality of modules and being configured for transferring a part of the source signal guided in the waveguide to its associated module, characterized in that each interface comprises: a first layer configured for coupling the interface to the waveguide; a second layer configured for forming a fixed surface for mounting one of the plurality of modules; and a coupler configured for coupling the first layer to the module associated with the interface. a continuous waveguide configured for guiding a signal provided by the source; and a plurality of interfaces, each interface being associated with one of the plurality of modules and being configured for transferring a part of the source signal guided in the waveguide to its associated module, characterized in that each interface comprises: a first layer configured for coupling the interface to the waveguide; a second layer configured for forming a fixed surface for mounting one of the plurality of modules; and a coupler configured for coupling the first layer to the module associated with the interface. a first layer configured for coupling the interface to the waveguide; a second layer configured for forming a fixed surface for mounting one of the plurality of modules; and a coupler configured for coupling the first layer to the module associated with the interface.
A row unit for a seeding machine comprising: a frame; a ground following device coupled to the frame; a furrow following device coupled to the frame; a position sensor assembly having a first position sensor configured to detect movement of the ground following device relative to the frame, and a second position sensor configured to detect movement of the furrow following device relative to the frame; and wherein the ground following device includes a gauge wheel arm pivotably coupled to the frame and the furrow following device includes a seed firmer. a frame; a ground following device coupled to the frame; a furrow following device coupled to the frame; a position sensor assembly having a first position sensor configured to detect movement of the ground following device relative to the frame, and a second position sensor configured to detect movement of the furrow following device relative to the frame; and wherein the ground following device includes a gauge wheel arm pivotably coupled to the frame and the furrow following device includes a seed firmer.
A method for transmitting data to security modules having antenna terminals (12A, 12B), having the following steps: - contacting the antenna terminals (12A, 12B) of the security module; - transmitting the data via the antenna terminals (12A, 12B) to the security module using physical contacts; wherein antenna terminals (38A, 38B) of a card reading device are contacted; and an antenna signal of the card reading device is transformed into an antenna signal for the security module, wherein the antenna terminals (38A, 38B) of the card reading device are connected to the input of a transformation unit and the antenna terminals (12A, 12B) of the security module to the output of the transformation unit; characterized in that the transformation unit is arranged in a case. - contacting the antenna terminals (12A, 12B) of the security module; - transmitting the data via the antenna terminals (12A, 12B) to the security module using physical contacts;
A ceramic heater, comprising: a heat-generating resistor, a lead configured for supplying power to the heat-generating resistor, and a ceramic body containing the heat-generating resistor and the lead therein, wherein the heat-generating resistor comprises a connecting portion being connected to the lead and having a width less than the width of the lead, and a main heat-generating portion other than the connecting portion, characterized in that the lead comprises a recessed portion being located at an end portion of the lead, being connected to the connecting portion, and being open at an only one side of the longitudinal direction of the lead and an only one side of the thickness direction of the lead, and at least a part of the connecting portion is located inside the recessed portion. a heat-generating resistor, a lead configured for supplying power to the heat-generating resistor, and a ceramic body containing the heat-generating resistor and the lead therein, wherein the heat-generating resistor comprises a connecting portion being connected to the lead and having a width less than the width of the lead, and a main heat-generating portion other than the connecting portion, characterized in that the lead comprises a recessed portion being located at an end portion of the lead, being connected to the connecting portion, and being open at an only one side of the longitudinal direction of the lead and an only one side of the thickness direction of the lead, and at least a part of the connecting portion is located inside the recessed portion.
A device for reducing heart valve regurgitation comprising: a plug for placing between natural heart valve leaflets, the plug shaped so that, upon systole, the natural heart leaflets coapt upon the plug, a frame including a generally D-shaped ring, the ring attached to the plug by two or more bridging elements, for supporting the plug between the natural heart valve leaflets, the ring configured to rest on top of the heart valve annulus; and a plurality of anchors attached to the device, for preventing the device from being swept upstream of the heart valve annulus upon systole, the plurality of anchors configured to be located below the heart valve annulus, wherein the plurality of anchors are configured to be at heart valve commissures when the device is in place in the heart. a plug for placing between natural heart valve leaflets, the plug shaped so that, upon systole, the natural heart leaflets coapt upon the plug, a frame including a generally D-shaped ring, the ring attached to the plug by two or more bridging elements, for supporting the plug between the natural heart valve leaflets, the ring configured to rest on top of the heart valve annulus; and a plurality of anchors attached to the device, for preventing the device from being swept upstream of the heart valve annulus upon systole, the plurality of anchors configured to be located below the heart valve annulus, wherein the plurality of anchors are configured to be at heart valve commissures when the device is in place in the heart.
Operating process for an irradiation device for irradiating a substrate by means of an UV emitter (9a; 205a-205h; 405a-405h, 503), comprising the process steps of: (a) Operating the UV emitter (9a; 205a-205h; 405a-405h, 503) at a nominal operating radiation power that is a function of a nominal operating temperature; (b) continuously feeding the substrate, at a feed rate, into an irradiation area that is defined by the UV emitter (9a; 205a-205h; 405a-405h, 503); (c) irradiating the substrate in the irradiation area; characterised in that the UV emitter (9a; 205a-205h; 405a-405h, 503) is switched off if there is an interruption of the continuous substrate feed, whereby the emitter temperature of the switched-off UV emitter (9a; 205a-205h; 405a-405h, 503) is measured and provisions for heating are made as a counter-measure to counteract a decrease of the emitter temperature by more than 10 °C below the nominal operating temperature. (a) Operating the UV emitter (9a; 205a-205h; 405a-405h, 503) at a nominal operating radiation power that is a function of a nominal operating temperature; (b) continuously feeding the substrate, at a feed rate, into an irradiation area that is defined by the UV emitter (9a; 205a-205h; 405a-405h, 503); (c) irradiating the substrate in the irradiation area;
A video ring back tone interaction method, comprising: initiating, by a calling terminal, a call to a called terminal; displaying, by the calling terminal, a video ring back tone on a display, wherein the video ring back tone comprises at least one interactive element; receiving, by the calling terminal, a user's first interactive operation performed on a first interactive element, wherein the first interactive element is any one of the at least one interactive element; caching, by the calling terminal, first interactive resource data corresponding to the first interactive element; and responding, by the calling terminal, based on the first interactive resource data when the calling terminal determines that a call status is an idle state, wherein the call status is the idle state after a call ends, wherein the responding based on the first interactive resource data comprises displaying the first interactive resource data in a corresponding manner based on a type of the cached first interactive resource data. initiating, by a calling terminal, a call to a called terminal; displaying, by the calling terminal, a video ring back tone on a display, wherein the video ring back tone comprises at least one interactive element; receiving, by the calling terminal, a user's first interactive operation performed on a first interactive element, wherein the first interactive element is any one of the at least one interactive element; caching, by the calling terminal, first interactive resource data corresponding to the first interactive element; and responding, by the calling terminal, based on the first interactive resource data when the calling terminal determines that a call status is an idle state, wherein the call status is the idle state after a call ends, wherein the responding based on the first interactive resource data comprises displaying the first interactive resource data in a corresponding manner based on a type of the cached first interactive resource data.
A therapeutic formulation or combination for use in preventing, slowing the progression of, treating or ameliorating a traumatic brain injury, a posttraumatic stress disorder, a traumatic war neurosis, or a post-traumatic stress syndrome (PTSS), wherein the therapeutic formulation or combination comprises: (a) a compound of Formula I: wherein R is -H or alkyl, and R 1, R 2, and R 3 is D; each of R 4, R 5, R 6, R 7, R 8, R 9, and R 10 is independently selected from the group consisting of -H, and -D; (b) a carboxylic acid hydrolysis product of (a);or (c) a pharmaceutically acceptable salt, hydrate, stereoisomer or solvate of (a) or (b). (a) a compound of Formula I: wherein R is -H or alkyl, and R 1, R 2, and R 3 is D; each of R 4, R 5, R 6, R 7, R 8, R 9, and R 10 is independently selected from the group consisting of -H, and -D; R is -H or alkyl, and R 1, R 2, and R 3 is D; each of R 4, R 5, R 6, R 7, R 8, R 9, and R 10 is independently selected from the group consisting of -H, and -D; (b) a carboxylic acid hydrolysis product of (a);or (c) a pharmaceutically acceptable salt, hydrate, stereoisomer or solvate of (a) or (b).
A hybrid electric system for a rotorcraft, comprising: a first thermal engine; a second thermal engine; and an electrical machine, wherein the first thermal engine is sized to produce a maximum first thermal engine power that is below a one-or-more-engine-inoperative requirement power, the second thermal engine is sized to produce a maximum second thermal engine power that is below the OEI requirement power, and the electrical machine is sized to provide at least a remaining power needed to reach the OEI requirement power in an OEI state, characterised in that the hybrid electric system further comprises: one or more control modules operatively connected to the first thermal engine, the second thermal engine, and the electrical machine to control power output therefrom, wherein: in a normal take-off mode, the one or more control modules are configured to cause output power only from the first thermal engine and the second thermal engine; and in a performance take-off mode, the one or more control modules are configured to additionally cause output power from the electrical machine. a first thermal engine; a second thermal engine; and an electrical machine, wherein the first thermal engine is sized to produce a maximum first thermal engine power that is below a one-or-more-engine-inoperative requirement power, the second thermal engine is sized to produce a maximum second thermal engine power that is below the OEI requirement power, and the electrical machine is sized to provide at least a remaining power needed to reach the OEI requirement power in an OEI state, characterised in that the hybrid electric system further comprises: one or more control modules operatively connected to the first thermal engine, the second thermal engine, and the electrical machine to control power output therefrom, wherein: in a normal take-off mode, the one or more control modules are configured to cause output power only from the first thermal engine and the second thermal engine; and in a performance take-off mode, the one or more control modules are configured to additionally cause output power from the electrical machine. in a normal take-off mode, the one or more control modules are configured to cause output power only from the first thermal engine and the second thermal engine; and in a performance take-off mode, the one or more control modules are configured to additionally cause output power from the electrical machine.
Method for transferring product stacks wrapped in packaging bags from a supply system, in which the product stacks wrapped in packaging bags are transported in a supply direction, to a removal system, in which the product stacks wrapped in packaging bags are further transported in a removal direction that is oriented at a specified angular deflection to the supply direction, the product stacks wrapped in packaging bags being guided in a transfer region between the supply system and the removal system having their centroids on the segment of a circular path, characterised in that, in the transfer region, the product stacks wrapped in packaging bags are oriented relative to the supply direction so as to be temporarily inclined in the removal direction such that the component parallel to the supply direction of the centrifugal force that occurs in the transfer region and acts on the product stacks wrapped in packaging bags does not exceed a specified maximum value at any time.
A method for the production of a cylinder having a structured surface, in which - a structural field is formed as a lacquer layer with a thickness of 100 - 800 nm on a planar support surface having a surface structure, said lacquer layer molding the surface structure, - and the structural field is applied onto the outer surface of a cylinder, characterized in that the uncured lacquer layer is transferred from the support surface onto the cylinder during rolling of the cylinder relative to the support surface. - a structural field is formed as a lacquer layer with a thickness of 100 - 800 nm on a planar support surface having a surface structure, said lacquer layer molding the surface structure, - and the structural field is applied onto the outer surface of a cylinder, characterized in that the uncured lacquer layer is transferred from the support surface onto the cylinder during rolling of the cylinder relative to the support surface.
A method of producing a composition, the composition comprising at least a solid carrier, a functional constituent, selected from a protein and a protein-type compound, wherein the protein and the protein-type compound is an enzyme, a protective layer for protecting the enzyme, by embedding the enzyme at least partially, and at least one bi-functional cross-linker to bind the enzyme to the surface of the solid carrier, wherein the method comprises the steps that, first the at least one enzyme is immobilized on the surface of the solid carrier, and then the protective layer for protecting the enzyme by at least partially embedding the enzyme, is built with building blocks at least part of which are monomers capable of interacting with each other and the immobilized enzyme, wherein the building blocks build the protective layer by a poly-condensation of silica precursors under aqueous conditions, wherein the silica precursors are tri-alkoxy-silane and tetra-alkoxy-silane, and, wherein the method comprises the further step of after a specific reaction time interval stopping a self-assembly reaction of the protective material for building the protective layer with the building blocks to so obtain a preferred protective layer with a desired thickness, wherein the thickness of the protective layer ranges from 1 to 25 nm and is between 50% and 150% of the length of the longer axis of the at least one enzyme.