mhurhangee/patent-ind-claim-en huggingface dataset:
A cosmetic ink application device comprising: a light source for irradiating human skin with ultraviolet light ; an optical sensor for detecting intensities of fluorescence in an ultraviolet range and/or a visible light range emitted from the skin in response to the irradiation of the ultraviolet light; an applicator for applying a cosmetic ink on the skin; a head portion for holding the light source, the optical sensor, and the applicator ; and a controller , wherein the controller defines a region on the skin which emits fluorescence having an intensity different from fluorescence emitted from other regions of the skin when irradiated with the ultraviolet light, as a marker region by moving the head portion parallel to a surface of the skin, wherein the controller determines a position for carrying out the ink application based on the marker region, and wherein the controller causes the applicator to apply the ink to a predetermined portion of the skin. a light source for irradiating human skin with ultraviolet light ; an optical sensor for detecting intensities of fluorescence in an ultraviolet range and/or a visible light range emitted from the skin in response to the irradiation of the ultraviolet light; an applicator for applying a cosmetic ink on the skin; a head portion for holding the light source, the optical sensor, and the applicator ; and a controller , wherein the controller defines a region on the skin which emits fluorescence having an intensity different from fluorescence emitted from other regions of the skin when irradiated with the ultraviolet light, as a marker region by moving the head portion parallel to a surface of the skin, wherein the controller determines a position for carrying out the ink application based on the marker region, and wherein the controller causes the applicator to apply the ink to a predetermined portion of the skin.
Light trap for UV radiation for curing ink on a printing substrate which is moved along the light trap in a transport direction , wherein the light trap comprises a molded body with more than two successive mold elements , wherein a side of the molded body facing the printing substrate is constructed in the form of steps with step elements as mold elements, wherein each step element comprises a pair of a step surface and a step shoulder , wherein the step surfaces and the step shoulders are inclined differently to the transport direction of the printing substrate and wherein the step surface has a step length L (L) and the step shoulder has a step height H (H), characterized in that the step elements are constructed as flat steps with rounded transitions between the step elements, wherein the transition radius between the step surface and the step shoulder is between 0.1 mm and 0.4 mm, and wherein the following applies: L > 3H.
An apparatus for protecting a communication device of railroad cars, the apparatus comprising: an antenna portion (ANT) configured to include main antennas and an auxiliary antenna; a main receiver configured to check a magnitude of a received signal transferred through the main antennas of the antenna portion; an auxiliary receiver configured to check a magnitude of a received signal transferred through the auxiliary antenna of the antenna portion; and a controller configured to compare the magnitude of the signal received by the main receiver and the magnitude of the signal received by the auxiliary receiver, determine whether there is a jamming signal according to a comparison result, and take a preset countermeasure when it is determined that there is a jamming signal characterized in, that the main antennas are directional antennas and include one primary antenna and a plurality of secondary antennas disposed, with the primary antenna as the center, around the primary antenna at a certain preset distance away and at a certain preset angular measurement apart, each of the secondary antennas is formed facing outward from a circumference formed by the secondary antennas at a preset angle with respect to a directional angle of the primary antenna, and the auxiliary antenna is an omnidirectional antenna. an antenna portion (ANT) configured to include main antennas and an auxiliary antenna; a main receiver configured to check a magnitude of a received signal transferred through the main antennas of the antenna portion; an auxiliary receiver configured to check a magnitude of a received signal transferred through the auxiliary antenna of the antenna portion; and a controller configured to compare the magnitude of the signal received by the main receiver and the magnitude of the signal received by the auxiliary receiver, determine whether there is a jamming signal according to a comparison result, and take a preset countermeasure when it is determined that there is a jamming signal characterized in, that the main antennas are directional antennas and include one primary antenna and a plurality of secondary antennas disposed, with the primary antenna as the center, around the primary antenna at a certain preset distance away and at a certain preset angular measurement apart, each of the secondary antennas is formed facing outward from a circumference formed by the secondary antennas at a preset angle with respect to a directional angle of the primary antenna, and the auxiliary antenna is an omnidirectional antenna.
A fiber optic connector assembly comprising: a fiber optic connector having a connector body with a front end and a back end ; a ferrule positioned at the front end of the connector body, the ferrule having a distal end face with a central region and recessed regions on opposite sides of the central region, the ferrule holding an optical fiber having a polished end face positioned at the central region of the distal end face of the ferrule; a dust cap adapted to mount on the ferrule, the dust cap having an open end and an opposite closed end , the closed end of the dust cap being configured to oppose the polished end face of the optical fiber; and a tape member covering the central region of the ferrule such that end edges of the tape member hang over longitudinal sides of the distal end face of the ferrule, while the dust cap is being inserted over the fiber optic connector, the end edges of the tape member are adapted to flex downwardly to secure to side walls of the dust cap such that as the dust cap is removed the tape member simultaneously comes off with the dust cap. a fiber optic connector having a connector body with a front end and a back end ; a ferrule positioned at the front end of the connector body, the ferrule having a distal end face with a central region and recessed regions on opposite sides of the central region, the ferrule holding an optical fiber having a polished end face positioned at the central region of the distal end face of the ferrule; a dust cap adapted to mount on the ferrule, the dust cap having an open end and an opposite closed end , the closed end of the dust cap being configured to oppose the polished end face of the optical fiber; and a tape member covering the central region of the ferrule such that end edges of the tape member hang over longitudinal sides of the distal end face of the ferrule, while the dust cap is being inserted over the fiber optic connector, the end edges of the tape member are adapted to flex downwardly to secure to side walls of the dust cap such that as the dust cap is removed the tape member simultaneously comes off with the dust cap.
Method for manufacturing a soundproof panel using a pressing unit , comprising the steps of: - providing contents of the soundproof panel comprising multiple layers by arranging in order: - a wire net ; - a non-porous sound insulating plate ; - a layer of mineral wool ; - a subnet ; - a synthetic separation net ; and - a wire net - providing contents of the soundproof panel on a support surface of the pressing unit , the contents comprising an extending part sticking out from the support surface ; - applying a pressure to the contents by displacing a press plate of the pressing unit and the support surface of the pressing unit towards each other to press the contents ; - sliding U-shaped profiles (14', 14") over circumferential edges of the extending part of the pressed contents so as to receive the circumferential edges in the profiles, while maintaining the pressure, wherein the U-shaped profiles overlap and are connected in such a way that a rectangular frame is formed. - providing contents of the soundproof panel comprising multiple layers by arranging in order: - a wire net ; - a non-porous sound insulating plate ; - a layer of mineral wool ; - a subnet ; - a synthetic separation net ; and - a wire net - a wire net ; - a non-porous sound insulating plate ; - a layer of mineral wool ; - a subnet ; - a synthetic separation net ; and - a wire net - providing contents of the soundproof panel on a support surface of the pressing unit , the contents comprising an extending part sticking out from the support surface ; - applying a pressure to the contents by displacing a press plate of the pressing unit and the support surface of the pressing unit towards each other to press the contents ; - sliding U-shaped profiles (14', 14") over circumferential edges of the extending part of the pressed contents so as to receive the circumferential edges in the profiles, while maintaining the pressure, wherein the U-shaped profiles overlap and are connected in such a way that a rectangular frame is formed.
A method for transmitting a device-to-device, D2D, signal for a D2D link at a user equipment, UE, in a wireless communication system, the method comprising: determining whether to transmit the D2D signal or not in each subframe of a plurality of subframes configured for D2D communication, based on a first probability; when it is determined to transmit the D2D signal in a subframe, selecting a resource from resources that are selectable in the subframe wherein no resource overlapping with resources for a Physical Random Access Channel, PRACH, is selectable; and transmitting the D2D signal using the resource to a target UE, and wherein the first probability is modified based on a number of the resources that are selectable in the subframe. determining whether to transmit the D2D signal or not in each subframe of a plurality of subframes configured for D2D communication, based on a first probability; when it is determined to transmit the D2D signal in a subframe, selecting a resource from resources that are selectable in the subframe wherein no resource overlapping with resources for a Physical Random Access Channel, PRACH, is selectable; and transmitting the D2D signal using the resource to a target UE, and wherein the first probability is modified based on a number of the resources that are selectable in the subframe.
A sterile packaging unit of a medical filter module comprising at least one filter module packed in a sterile primary package , wherein the primary package is a blister package comprising a molded part including a receiving compartment for the filter module and a cover part arranged on the molded part and hermetically sealing the receiving compartment , and wherein the primary package includes at least one getter for binding molecular oxygen present in the receiving compartment , characterized in that the filter module is mounted by form closure vis-à-vis the molded part , and the molded part is configured to be dimensionally stable and a pressure compensation portion of the molded part is configured to be weakened as compared to the residual molded part so that the molded part will deform substantially only in the pressure compensation portion due to vacuum caused in the receiving compartment by the getter binding oxygen, and inner portions of the primary package on which the filter module is mounted remain substantially undeformed. wherein the primary package is a blister package comprising a molded part including a receiving compartment for the filter module and a cover part arranged on the molded part and hermetically sealing the receiving compartment , and wherein the primary package includes at least one getter for binding molecular oxygen present in the receiving compartment , characterized in that the filter module is mounted by form closure vis-à-vis the molded part , and the molded part is configured to be dimensionally stable and a pressure compensation portion of the molded part is configured to be weakened as compared to the residual molded part so that the molded part will deform substantially only in the pressure compensation portion due to vacuum caused in the receiving compartment by the getter binding oxygen, and inner portions of the primary package on which the filter module is mounted remain substantially undeformed.
A bispecific scFv immunofusion homodimer wherein each subunit of the homodimer comprises an anti-CD123 single-chain Fv at the N-terminus, an anti-CD3 single-chain Fv at the C-terminus, and an immunoglobulin constant region linker operatively coupling the anti-CD123 scFv and the anti-CD3 scFv, wherein the immunoglobulin constant region linker is a human IgG1 hinge-C H 2-C H 3 domain.
A joint for joining a first panel together with a second panel , comprising: a substantially hollow body having substantially a cylindrical shape with an outer end and an inner end , and gearing for rotatably displacing a threaded pin from a position retracted within the body to a position at least partially extracted from the body ; wherein said gearing comprises a transverse shaft with a first bevel gear wheel and a longitudinal shaft with a second bevel gear wheel in engagement with said first bevel gear wheel , wherein the rotation of the transverse shaft causes the rotation of the longitudinal shaft and the rotation of the threaded pin , wherein said body comprises an outer surface and wherein said outer surface comprises raised ridges forming a knurling , characterised in that the knurling has a substantially helical progression, and in that the joint further comprises an expansion plug which is configured to engage with the outer surface of the body when the joint is fully inserted inside a recess in the thickness of a panel , for example of a shelf, of a furniture unit. a substantially hollow body having substantially a cylindrical shape with an outer end and an inner end , and gearing for rotatably displacing a threaded pin from a position retracted within the body to a position at least partially extracted from the body ; wherein said gearing comprises a transverse shaft with a first bevel gear wheel and a longitudinal shaft with a second bevel gear wheel in engagement with said first bevel gear wheel , wherein the rotation of the transverse shaft causes the rotation of the longitudinal shaft and the rotation of the threaded pin , wherein said body comprises an outer surface and wherein said outer surface comprises raised ridges forming a knurling , characterised in that the knurling has a substantially helical progression, and in that the joint further comprises an expansion plug which is configured to engage with the outer surface of the body when the joint is fully inserted inside a recess in the thickness of a panel , for example of a shelf, of a furniture unit.
A solid composition wherein the composition comprises: (a) between 50 % and 95 % by weight axelopran sulfate, (b) between 5 % and 50 % by weight polyvinyl alcohol, (c) between 0 % and 45 % by weight polyethylene glycol 3350, and (d) between 0 % and 10 % by weight ascorbic acid. (a) between 50 % and 95 % by weight axelopran sulfate, (b) between 5 % and 50 % by weight polyvinyl alcohol, (c) between 0 % and 45 % by weight polyethylene glycol 3350, and (d) between 0 % and 10 % by weight ascorbic acid.
A method of forming a powdered hemostatic composition, comprising the steps of: a) forming a suspension of a mixture comprising particles of fibrinogen, thrombin, ORC fibers in a non-aqueous low boiling solvent; b) spraying the suspension through a nozzle onto a substrate, c) allowing the non-aqueous solvent to evaporate; d) separating the composition from the substrate and sieving the composition; and thus forming the powdered hemostatic composition. a) forming a suspension of a mixture comprising particles of fibrinogen, thrombin, ORC fibers in a non-aqueous low boiling solvent; b) spraying the suspension through a nozzle onto a substrate, c) allowing the non-aqueous solvent to evaporate; d) separating the composition from the substrate and sieving the composition; and thus forming the powdered hemostatic composition.
An expansion kit for reversible incorporation in a bioreactor for dividing a bioreactor into two separate reaction chambers and for performing a microbial bio-electrosynthesis, wherein the expansion kit has a reaction chamber which is open on the top side and which has a window in a sidewall , said window being provided with a membrane , wherein the expansion kit is formed in such a way that the reaction chamber of the expansion kit is connected to a reaction chamber of the bioreactor by means of the membrane when in a state of being incorporated in the bioreactor, wherein the expansion kit has a reactor cover which has at least two through openings into which electrodes are insertable such that these electrodes each protrude into one of the reaction chambers which are separated by the membrane and function, respectively, as anode or cathode.
A method for testing a soft magnetic composite stator core, SMC stator core , for an electric machine , characterised by the following steps: - Provision of multiple windings in the form of printed circuits , each of which has recesses which are adapted to the shape and arrangement of teeth of an SMC stator core to be tested, - Mounting of the stacked printed circuits on the teeth of the SMC stator core , - Covering of the arrangement of SMC stator core and printed circuits with a ferrous flux ring contacting the teeth , - Operation of the printed circuits as transformer windings with recording of properties of the SMC stator core acting in this case as the transformer core. - Provision of multiple windings in the form of printed circuits , each of which has recesses which are adapted to the shape and arrangement of teeth of an SMC stator core to be tested, - Mounting of the stacked printed circuits on the teeth of the SMC stator core , - Covering of the arrangement of SMC stator core and printed circuits with a ferrous flux ring contacting the teeth , - Operation of the printed circuits as transformer windings with recording of properties of the SMC stator core acting in this case as the transformer core.
A natural gas supply station comprising: an installation structure on which an LNG tank container (T) is installed; and a gas vaporizer that receives a liquefied natural gas from the LNG tank container to vaporize the liquefied natural gas, wherein the installation structure comprises: a moving part reciprocatively moving in a first direction in which the LNG tank container (T) is unloaded from a transport unit and in a second direction in which the LNG tank container (T) is loaded to the transport unit, a base part installed on the ground to load the LNG tank container (T); a guide part disposed on the base part to guide the moving part , and in that the moving part moves the LNG tank container (T) loaded on the transport unit to the base part and moves the LNG tank container (T) loaded on the base part to the transport unit, by moving together with the LNG tank container (T) in the first and second directions respectively while being guided by the guide part , and the gas vaporizer receives the liquefied natural gas from the LNG tank container (T) installed on the base part disposed at a gas-consuming area. an installation structure on which an LNG tank container (T) is installed; and a gas vaporizer that receives a liquefied natural gas from the LNG tank container to vaporize the liquefied natural gas, wherein the installation structure comprises: a moving part reciprocatively moving in a first direction in which the LNG tank container (T) is unloaded from a transport unit and in a second direction in which the LNG tank container (T) is loaded to the transport unit, a base part installed on the ground to load the LNG tank container (T); a guide part disposed on the base part to guide the moving part , and in that the moving part moves the LNG tank container (T) loaded on the transport unit to the base part and moves the LNG tank container (T) loaded on the base part to the transport unit, by moving together with the LNG tank container (T) in the first and second directions respectively while being guided by the guide part , and the gas vaporizer receives the liquefied natural gas from the LNG tank container (T) installed on the base part disposed at a gas-consuming area.
A method comprising: providing, by a web server, media content for playback on a plurality of client devices, the media content associated with a set of enhanced features that when enabled each provide functionality associated with and supplemental to the media content; performing , by the web server, a handshake with each of the plurality of client devices to authenticate, for each client device, a communication channel by which the respective client device accesses the media content provided by the web server, wherein the handshake comprises information about a network by which the respective client device is requesting access to the media content; enabling , by the web server, one or more of the enhanced features in the set of enhanced features while delivering the media content for playback on a first client device in response to determining the information about the network by which the first client device is requesting access satisfies a first criterion; and delivering , by the web server, the media content for playback on a second client device without enabling any of the set of enhanced features in response to determining the information about the network by which the second client device is requesting access does not satisfy the first criterion. providing, by a web server, media content for playback on a plurality of client devices, the media content associated with a set of enhanced features that when enabled each provide functionality associated with and supplemental to the media content; performing , by the web server, a handshake with each of the plurality of client devices to authenticate, for each client device, a communication channel by which the respective client device accesses the media content provided by the web server, wherein the handshake comprises information about a network by which the respective client device is requesting access to the media content; enabling , by the web server, one or more of the enhanced features in the set of enhanced features while delivering the media content for playback on a first client device in response to determining the information about the network by which the first client device is requesting access satisfies a first criterion; and delivering , by the web server, the media content for playback on a second client device without enabling any of the set of enhanced features in response to determining the information about the network by which the second client device is requesting access does not satisfy the first criterion.