mhurhangee/ep-ind-claims huggingface dataset:
Assembly for the detection of the reflectivity anisotropy of a sample comprising (a) a radiation source for the illumination of the sample in such a way that the radiation generated by the radiation source is perpendicularly incident on the sample; (b) a polarization beam splitter arranged in the optical path between the radiation source and the sample polarizing the radiation on the forward run in a first direction of polarization, and splitting the radiation in a first and a second portion when reversing the passing direction, wherein the first portion has the first direction of polarization and the second portion has the second direction of polarization which is perpendicular to the first direction of polarization; (c) a detector for detecting the radiation reflected by the sample which is positioned in such a way that it detects the radiation of the second portion of the radiation behind the polarization beam splitter; (d) means for modulating the polarization which is arranged in the optical path between the polarization beam splitter and the sample; characterized in that (e) the means for modulating the polarization comprise a rotating polarizer. (a) a radiation source for the illumination of the sample in such a way that the radiation generated by the radiation source is perpendicularly incident on the sample; (b) a polarization beam splitter arranged in the optical path between the radiation source and the sample polarizing the radiation on the forward run in a first direction of polarization, and splitting the radiation in a first and a second portion when reversing the passing direction, wherein the first portion has the first direction of polarization and the second portion has the second direction of polarization which is perpendicular to the first direction of polarization; (c) a detector for detecting the radiation reflected by the sample which is positioned in such a way that it detects the radiation of the second portion of the radiation behind the polarization beam splitter; (d) means for modulating the polarization which is arranged in the optical path between the polarization beam splitter and the sample; (e) the means for modulating the polarization comprise a rotating polarizer.
A preform production apparatus for shaping a reinforcing fiber base material into a specified shape prior to main molding thereof in order to obtain a fiber-reinforced resin molding of a desired shape, the apparatus comprising: a stationary mold with a surface shape corresponding to the specified shape; an end effector for pressing the reinforcing fiber base material on a surface of the stationary mold; and a control unit for moving the end effector, wherein the end effector includes a pressure-contact element holding portion and a plurality of pressure-contact elements which are held by the pressure-contact element holding portion such that each of some pressure-contact elements projects from the pressure-contact element holding portion, the pressure-contact elements have a rod shape, and at least some of the plurality of pressure-contact elements are held by the pressure-contact element holding portion such that a projection length is changeable due to a reaction force from the stationary mold. a stationary mold with a surface shape corresponding to the specified shape; an end effector for pressing the reinforcing fiber base material on a surface of the stationary mold; and a control unit for moving the end effector, wherein the end effector includes a pressure-contact element holding portion and a plurality of pressure-contact elements which are held by the pressure-contact element holding portion such that each of some pressure-contact elements projects from the pressure-contact element holding portion, the pressure-contact elements have a rod shape, and at least some of the plurality of pressure-contact elements are held by the pressure-contact element holding portion such that a projection length is changeable due to a reaction force from the stationary mold.
A method of installing a click chemistry handle to the C-terminus of a target protein, the method comprising the steps of: (a) providing the target protein with a C-terminal sortase recognition sequence; (b) contacting the target protein with a peptide or agent comprising 1-10 N-terminal glycine residues or an N-terminal alkylamine group and the click chemistry handle; in the presence of a sortase enzyme under conditions suitable for the sortase to transamidate the target protein and the peptide comprising the click chemistry handle, thus conjugating the target protein to the click-chemistry handle, preferably wherein the target protein is fused to the sortase recognition sequence at the protein's C-terminus. (a) providing the target protein with a C-terminal sortase recognition sequence; (b) contacting the target protein with a peptide or agent comprising 1-10 N-terminal glycine residues or an N-terminal alkylamine group and the click chemistry handle; in the presence of a sortase enzyme under conditions suitable for the sortase to transamidate the target protein and the peptide comprising the click chemistry handle, thus conjugating the target protein to the click-chemistry handle, preferably wherein the target protein is fused to the sortase recognition sequence at the protein's C-terminus.
A method comprising: in a security system within a secured area, said security system having a control panel and a plurality of intrusion sensors (18, 20), the control panel comprising a wireless transmitter, the wireless transmitter transmitting status messages from said control panel to said intrusion sensors (18, 20), said status messages including at least a first encrypted message that the security system is armed and a second encrypted message that the security system is disarmed; in an appliance control device (44, 46) having a wireless receiver and a decryption unit, the wireless receiver continuously monitoring a transmission spectrum of the security system for said status messages and receiving the first and second encrypted messages, the decryption unit decrypting the first encrypted message to recover the armed status message and decrypting the second encrypted message to recover the disarmed status message; and in an environmental control appliance associated with the secured area and controlled by the appliance control device (44, 46), the environmental control appliance entering a relatively low energy consuming mode in response to the appliance control device (44, 46) receiving the armed message and the environmental control appliance entering a relatively high energy consuming mode in response to the appliance control device (44, 46) receiving the disarmed message. in a security system within a secured area, said security system having a control panel and a plurality of intrusion sensors (18, 20), the control panel comprising a wireless transmitter, the wireless transmitter transmitting status messages from said control panel to said intrusion sensors (18, 20), said status messages including at least a first encrypted message that the security system is armed and a second encrypted message that the security system is disarmed; in an appliance control device (44, 46) having a wireless receiver and a decryption unit, the wireless receiver continuously monitoring a transmission spectrum of the security system for said status messages and receiving the first and second encrypted messages, the decryption unit decrypting the first encrypted message to recover the armed status message and decrypting the second encrypted message to recover the disarmed status message; and in an environmental control appliance associated with the secured area and controlled by the appliance control device (44, 46), the environmental control appliance entering a relatively low energy consuming mode in response to the appliance control device (44, 46) receiving the armed message and the environmental control appliance entering a relatively high energy consuming mode in response to the appliance control device (44, 46) receiving the disarmed message.
Cableway vehicle for a cableway, characterized in that a crossover apparatus is provided on the cableway vehicle for the crossover of persons from the cableway vehicle to an access unit of a cableway support of the cableway, the crossover apparatus being displaceable relative to the cableway vehicle between a stowage position in which the crossover apparatus is stowed on the cableway vehicle and a deployed position intended for carrying out the crossover, wherein a fastening section is provided on the crossover apparatus to releasably couple the crossover apparatus to the access unit of the cableway support in the deployed position.
A hand held controller for a games console comprising: an outer case; and a plurality of controls located on a front end and top of the controller including at least one analogue thumbstick,,,; the controller being shaped to be held in both hands of a user such that the user's thumbs are positioned to operate controls located on the top of the controller,,,, and the user's index fingers are positioned to operate controls located on the front of the controller,,,; wherein the analogue thumbstick,, being configured for two-dimensional input control and located on the top of the controller comprises a shaft pivotally mounted about two perpendicular axes X, Y, the shaft being biased about the first axis X by a first biasing device and about the second axis Y by a second biasing device so as to return to a center default position, and is aligned with the biomechanics of the user's thumb, such that the user when moving the thumb in natural movement is only required to effect movement of the shaft about a single axis and only to work against one of the first and second biasing devices; wherein forward and backward movement actions of the thumb about a pivotal axis A1 at the interphalangeal joint effect pivotal movement of the shaft about the first axis X of the two perpendicular axes, and wherein left and right movement actions of the thumb about a pivotal axis A2 at the carpometacarpaljoint effect pivotal movement of the shaft about the second axis Y of the two perpendicular axes. an outer case; and a plurality of controls located on a front end and top of the controller including at least one analogue thumbstick,,,; the controller being shaped to be held in both hands of a user such that the user's thumbs are positioned to operate controls located on the top of the controller,,,, and the user's index fingers are positioned to operate controls located on the front of the controller,,,; wherein the analogue thumbstick,, being configured for two-dimensional input control and located on the top of the controller comprises a shaft pivotally mounted about two perpendicular axes X, Y, the shaft being biased about the first axis X by a first biasing device and about the second axis Y by a second biasing device so as to return to a center default position, and is aligned with the biomechanics of the user's thumb, such that the user when moving the thumb in natural movement is only required to effect movement of the shaft about a single axis and only to work against one of the first and second biasing devices; wherein forward and backward movement actions of the thumb about a pivotal axis A1 at the interphalangeal joint effect pivotal movement of the shaft about the first axis X of the two perpendicular axes, and wherein left and right movement actions of the thumb about a pivotal axis A2 at the carpometacarpaljoint effect pivotal movement of the shaft about the second axis Y of the two perpendicular axes.
A fluid transfer coupling comprising: a first shaft assembly; a second shaft assembly; and a seal assembly, the first shaft assembly comprising: a first shaft; and an annular fin attached to the first shaft, the annular fin having one or more internal passages extending therethrough, the or each internal passage connecting a centre portion of the first shaft to a radially outwardly facing side of the annular fin, the second shaft assembly comprising: a second shaft; and an annular trough extending radially outwardly of the second shaft, wherein the first shaft is concentrically accommodated within the second shaft with the annular fin accommodated within the annular trough, the seal assembly seals the annular trough, and in use, a fluid is delivered to the annular trough, the first shaft assembly rotates at a first rotational speed and the second shaft assembly rotates at a second rotational speed, the second rotational speed being greater than the first rotational speed, the difference between the second rotational speed and the first rotational speed causes the fluid contained within the annular trough to be driven radially inwardly through the or each internal passage to the centre portion of the first shaft. a first shaft assembly; a second shaft assembly; and a seal assembly, a first shaft; and an annular fin attached to the first shaft, the annular fin having one or more internal passages extending therethrough, the or each internal passage connecting a centre portion of the first shaft to a radially outwardly facing side of the annular fin, a second shaft; and an annular trough extending radially outwardly of the second shaft,
Flexible electrical extension cable, which contains at least two electrically conductive cores, for electrical pipe machining devices in the form of a pipe cutting device and/or in the form of a pipe end machining device, wherein the extension cable is divided into a front cable section and a rear cable section; wherein the two cable sections (2-1, 2-2) are connected to one another by a rotary coupling, so that the two cable sections (2-1, 2-2) can be turned relative to one another; wherein an at least twin-core cable plug is electrically connected to the front end of the front cable section, the said cable plug being in the form of a mains plug which fits into a plug socket of the public power supply system; wherein an at least twin-core cable coupling is electrically connected to the rear end of the rear cable section, the said cable coupling having a structure which does not match the cable plug and as a result cannot be electrically connected, but rather can be plug-connected only to a cable plug which is adapted to it or to an electrical plug which is adapted to it and fastened in a stationary manner to a pipe machining device, in order to form an electrical connection, wherein the cable coupling has a central coupling pin which is composed of electrically insulating material and which contains at least two plug bushes (12, 13, 14) which are composed of electrically conductive material and which do not project out of the coupling pin to the rear, in such a way that an at least twin-core electrical plug can be plugged on, wherein said extension cable is formed in the manner of a thread as a multiple helix in the rear cable section at least on a portion of its length, so that said helix looks like a helical spring and can be expanded in a spring-elastic manner in the longitudinal direction of the cable.
Method for producing a silylated polyurethane, comprising reacting at least one polyether compound having an OH number between 3 and 20 mg KOH/g according to DIN 53783, consisting of at least two polyoxyalkylene blocks A and B, wherein the number of carbon atoms in the alkylene units of blocks A and B differs by at least 1, with one or more isocyanatosilanes of formula: OCN-R-Si-(R 1) m (-OR 2) 3-m wherein m is 0, 1, or 2, each R 2 is an alkyl radical with 1 to 4 carbon atoms, each R 1 is an alkyl radical with 1 to 4 carbon atoms, and R is a difunctional organic group, to cap the hydroxyl groups of the polyether compound with the isocyanatosilane, characterized in that the first polyether block B contains polyoxytetramethylene units, and the second block A contains polyoxypropylene units.
A method for wireless communications by a first user equipment, UE, comprising: monitoring, via one or more sensors of the first LTE, at least one of a thermal overload condition or an exposure condition associated with a first communication link between the first LTE and a base station; determining, based at least in part on the monitoring, that at least one of the thermal overload condition or the exposure condition exceeds a corresponding predetermined switch threshold; characterized by establishing, based at least in part on the determining, a second communication link between the first LTE and a second LTE, wherein the second LTE is configured to operate as a relay UE for communications between the first UE and the base station via the second communication link; and communicating with the base station via the second communication link and the relay UE; wherein the first and second communication links are beamforming-based communication links. monitoring, via one or more sensors of the first LTE, at least one of a thermal overload condition or an exposure condition associated with a first communication link between the first LTE and a base station; determining, based at least in part on the monitoring, that at least one of the thermal overload condition or the exposure condition exceeds a corresponding predetermined switch threshold; characterized by establishing, based at least in part on the determining, a second communication link between the first LTE and a second LTE, wherein the second LTE is configured to operate as a relay UE for communications between the first UE and the base station via the second communication link; and communicating with the base station via the second communication link and the relay UE; wherein the first and second communication links are beamforming-based communication links.
A deployment assembly for pulling, pushing, or blowing a plurality of preterminated fiber optic cables of a multi fiber cable through a duct having a cross sectional footprint smaller than a cross-sectional footprint of a fiber optic connector configured to be connected to the plurality of preterminated fiber optic cables, comprising: a sleeve; a rod configured to be coupled with the sleeve; a plurality of dust caps; wherein the sleeve is configured to receive a multi fiber cable and to permit a plurality of preterminated fiber optic cables of the multi fiber cable to pass through the sleeve; wherein the rod includes a first end configured to be coupled with the sleeve; wherein each of the plurality of dust caps is configured to be coupled with a ferrule of one of the preterminated fiber optic cables; wherein each of the plurality of dust caps is configured to be coupled with the rod, thereby coupling the preterminated fiber optic cables with the rod; wherein the preterminated fiber optic cables are configured to be assembled with a fiber optic connector; wherein the deployment assembly has a cross-sectional footprint that is smaller than a cross-sectional footprint of a fiber optic connector that is configured to be assembled with the preterminated fiber optic cable; wherein the plurality of preterminated fiber optic cables are configured to be pushed, pulled, or blown together through a duct having an inner diameter that is less than a cross-sectional footprint of a fiber optic connector that is configured to be assembled with the preterminated fiber optic cable. a sleeve; a rod configured to be coupled with the sleeve; a plurality of dust caps; wherein the sleeve is configured to receive a multi fiber cable and to permit a plurality of preterminated fiber optic cables of the multi fiber cable to pass through the sleeve; wherein the rod includes a first end configured to be coupled with the sleeve; wherein each of the plurality of dust caps is configured to be coupled with a ferrule of one of the preterminated fiber optic cables; wherein each of the plurality of dust caps is configured to be coupled with the rod, thereby coupling the preterminated fiber optic cables with the rod; wherein the preterminated fiber optic cables are configured to be assembled with a fiber optic connector; wherein the deployment assembly has a cross-sectional footprint that is smaller than a cross-sectional footprint of a fiber optic connector that is configured to be assembled with the preterminated fiber optic cable; wherein the plurality of preterminated fiber optic cables are configured to be pushed, pulled, or blown together through a duct having an inner diameter that is less than a cross-sectional footprint of a fiber optic connector that is configured to be assembled with the preterminated fiber optic cable.
A heating module (30; 30') for liquid, extending in a longitudinal direction between an upstream portion allowing a liquid to enter and a downstream portion allowing the liquid to exit, said upstream portion or said downstream portion forming a terminal portion, said heating module (30; 30') further comprising: - a path for liquid delimited between a tubular body and a sleeve (38; 48) surrounding said tubular body, said path for liquid comprising a liquid inlet zone in the upstream portion of the module, a liquid outlet zone in the downstream portion of the module, and a heat exchange zone located peripherally between said liquid inlet zone and said liquid outlet zone, - electric heating means (38a; 49) located around said heat exchange zone to enable the liquid travelling along the path for liquid to be heated, characterized in that: - said terminal portion bounds a central housing, - said path for liquid communicates with said central housing, and - said heating module (30; 30') further comprises attachment means (36a, 36d) located at the extremity of the terminal portion. - a path for liquid delimited between a tubular body and a sleeve (38; 48) surrounding said tubular body, said path for liquid comprising a liquid inlet zone in the upstream portion of the module, a liquid outlet zone in the downstream portion of the module, and a heat exchange zone located peripherally between said liquid inlet zone and said liquid outlet zone, - electric heating means (38a; 49) located around said heat exchange zone to enable the liquid travelling along the path for liquid to be heated, characterized in that: - said terminal portion bounds a central housing, - said path for liquid communicates with said central housing, and - said heating module (30; 30') further comprises attachment means (36a, 36d) located at the extremity of the terminal portion.
Sealing lip for a headbox, the sealing lip having a wear volume, characterised in that at least one indicator is arranged inside the sealing lip at least partially in the region of the wear volume and the indicator is designed as an electrical or optical conductor.