mhurhangee/ep-ind-claims huggingface dataset:
A display apparatus comprising: a display module for displaying an image; a housing accommodating the display module; at least one speaker module (300, 700) mounted within the housing, the at least one speaker module (300, 700) being connected to the display module to emit sound; and at least one reflector (400, 800) disposed adjacent to the at least one speaker module (300, 700), the at least one reflector (400, 800) having an inclined acoustic reflection surface (412, 812) exposed to a front side of the display module when sound is emitted from the at least one speaker module (300, 700), wherein the at least one speaker module (300, 700) is disposed in parallel to a horizontal or vertical direction of the housing, characterized in that the at least one reflector (400, 800) is movably disposed between a position where the acoustic reflection surface (412, 812) is exposed to the outside of the housing and a position where the acoustic reflection surface (412, 812) is accommodated into the housing. a display module for displaying an image; a housing accommodating the display module; at least one speaker module (300, 700) mounted within the housing, the at least one speaker module (300, 700) being connected to the display module to emit sound; and at least one reflector (400, 800) disposed adjacent to the at least one speaker module (300, 700), the at least one reflector (400, 800) having an inclined acoustic reflection surface (412, 812) exposed to a front side of the display module when sound is emitted from the at least one speaker module (300, 700), wherein the at least one speaker module (300, 700) is disposed in parallel to a horizontal or vertical direction of the housing, characterized in that the at least one reflector (400, 800) is movably disposed between a position where the acoustic reflection surface (412, 812) is exposed to the outside of the housing and a position where the acoustic reflection surface (412, 812) is accommodated into the housing.
A filter insert for being removably arranged in a filter housing, wherein the filter insert defines a first end and a second end opposite the first end, comprising - a closing means at the first end of the filter insert for controlling opening and closing, respectively, of a drainage aperture arranged in the filter housing, wherein - the filter insert comprises an actuation means operatively connected to the closing means for actuating the closing means, wherein the actuation means is positioned at the second end of the filter insert and wherein the actuation means is accessible for external contact at the second end of the filter insert, characterized in that - the filter insert comprises a filter material body, and wherein the filter insert comprises a filter material body support structure at at least the second end, wherein the filter material body support structure has a main extension in a direction transverse to an axial direction of the filter insert, wherein the actuation means is moveably arranged in an axial direction in relation to said filter material body support structure at the second end of the filter insert so as to generate an axial movement of the closing means when said actuation means is actuated, and - the actuation means comprises an external contact surface defining a projection or recess, and - the projection or recess forms part of a structure with varying extension in an axial direction of the filter insert along a circumferential direction of the filter insert. - a closing means at the first end of the filter insert for controlling opening and closing, respectively, of a drainage aperture arranged in the filter housing, wherein - the filter insert comprises an actuation means operatively connected to the closing means for actuating the closing means, wherein the actuation means is positioned at the second end of the filter insert and wherein the actuation means is accessible for external contact at the second end of the filter insert, characterized in that - the filter insert comprises a filter material body, and wherein the filter insert comprises a filter material body support structure at at least the second end, wherein the filter material body support structure has a main extension in a direction transverse to an axial direction of the filter insert, wherein the actuation means is moveably arranged in an axial direction in relation to said filter material body support structure at the second end of the filter insert so as to generate an axial movement of the closing means when said actuation means is actuated, and - the actuation means comprises an external contact surface defining a projection or recess, and - the projection or recess forms part of a structure with varying extension in an axial direction of the filter insert along a circumferential direction of the filter insert.
An objective lens comprising, in order from an object side: a first lens group having positive refractive power; a second lens group having positive refractive power; a diffractive optical element having a diffractive optical surface; and a third lens group having negative refractive power; the first lens group including at least one cemented lens and the most object side surface of the first lens group forming a concave surface facing the object side; the second lens group including at least one cemented lens; the third lens group including at least one cemented negative lens; a principal ray crossing an optical axis between the second lens group and the third lens group; and the following conditional expressions being satisfied: h < α × L × 0.3 H < H 3 + φ / 2 × fa + H 3 / | f 3 | × L × 0.85 where α=φ/2×{1/fa-(L/f12-1)/|f3|}, H3=fa×NA, h denotes the maximum height of a principal ray on the diffractive optical surface, φ denotes a real field of view, L denotes a distance along the optical axis between the second lens group and the third lens group, fa denotes a focal length of the objective lens, H denotes the maximum effective radius on the diffractive optical surface, NA denotes a numerical aperture, f12 denotes a combined focal length of the first lens group and the second lens group, and f3 denotes a focal length of the third lens group. a first lens group having positive refractive power; a second lens group having positive refractive power; a diffractive optical element having a diffractive optical surface; and a third lens group having negative refractive power; the first lens group including at least one cemented lens and the most object side surface of the first lens group forming a concave surface facing the object side; the second lens group including at least one cemented lens; the third lens group including at least one cemented negative lens; a principal ray crossing an optical axis between the second lens group and the third lens group; and the following conditional expressions being satisfied: h < α × L × 0.3 H < H 3 + φ / 2 × fa + H 3 / | f 3 | × L × 0.85 where α=φ/2×{1/fa-(L/f12-1)/|f3|}, H3=fa×NA, h denotes the maximum height of a principal ray on the diffractive optical surface, φ denotes a real field of view, L denotes a distance along the optical axis between the second lens group and the third lens group, fa denotes a focal length of the objective lens, H denotes the maximum effective radius on the diffractive optical surface, NA denotes a numerical aperture, f12 denotes a combined focal length of the first lens group and the second lens group, and f3 denotes a focal length of the third lens group.
Permanent magnet rotor for an electric machine with a soft magnetic core and a number of circumferentially arranged permanent magnets, in which an edge section of the core lies respectively between two permanent magnets that are adjacent to each other in the circumferential direction and the permanent magnets are magnetised so that the hard magnetic poles with the same magnetisation lie radially on the outside and the edge sections form pseudomagnetic poles with a polarity opposite to the hard magnetic poles, characterised by the permanent magnets respectively being formed by hot extrusion pressing of a blank in a curved shape so that the volume parts of the centre zone - along a curved path - and the volume parts of the ends - in the formation of edge segments - flow secantially in reference to the rotor, so that the magnetic orientation is radial in the centre zone and diametrical in the edge segments, the permanent magnets respectively extend over a peripheral angle that is larger than the complementary peripheral angle over which the edge segments of the core respectively extend, and the flux densities of the hard magnetic and pseudomagnetic poles on the outer circumference differ from each other by less than 10%, in particular by less than 5%.
A degradable squib, characterised in that it comprises: - an open tube; - a piece of steel wool placed inside the open tube; - a sublimable wire under an electrical bias placed in the piece of steel wool; - a double electrical cord connected to the wire to power the same and passing inside the open tube; - a compressed air inlet pipe leading into the inside of the open tube, on the same side as the double electrical cord; and - a disc placed on the whole section of the open tube and passed through by the compressed air inlet pipe and the double electrical cord. - an open tube; - a piece of steel wool placed inside the open tube; - a sublimable wire under an electrical bias placed in the piece of steel wool; - a double electrical cord connected to the wire to power the same and passing inside the open tube; - a compressed air inlet pipe leading into the inside of the open tube, on the same side as the double electrical cord; and - a disc placed on the whole section of the open tube and passed through by the compressed air inlet pipe and the double electrical cord.
A method of manufacturing artificial turf, the method comprising the steps of: - creating a polymer mixture (400, 500, 600), wherein the polymer mixture comprises a stabilizing polymer, a bulk polymer, a flame retardant polymer combination, and a compatibilizer, wherein the stabilizing polymer polymer and the bulk polymer are immiscible, wherein the stabilizing polymer comprises fibers surrounded by the compatibilizer within the bulk polymer, wherein the stabilizing polymer is aramid, wherein the flame retardant polymer combination is a mixture of triazin and melamine; - extruding the polymer mixture into a monofilament; - quenching the monofilament; - reheating the monofilament; - stretching the reheated monofilament to align the fibers relative to each other and to form the monofilament into an artificial turf fiber; - incorporating the artificial turf fiber into an artificial turf backing. - creating a polymer mixture (400, 500, 600), wherein the polymer mixture comprises a stabilizing polymer, a bulk polymer, a flame retardant polymer combination, and a compatibilizer, wherein the stabilizing polymer polymer and the bulk polymer are immiscible, wherein the stabilizing polymer comprises fibers surrounded by the compatibilizer within the bulk polymer, wherein the stabilizing polymer is aramid, wherein the flame retardant polymer combination is a mixture of triazin and melamine; - extruding the polymer mixture into a monofilament; - quenching the monofilament; - reheating the monofilament; - stretching the reheated monofilament to align the fibers relative to each other and to form the monofilament into an artificial turf fiber; - incorporating the artificial turf fiber into an artificial turf backing.
Wood treatment tool spindle with a spindle housing, in which a spindle shaft with at least one pivot bearing (17, 18) is mounted, and with at least one temperature sensor (33, 34), which is arranged adjacent to the pivot bearing (17, 18) in the spindle housing, detects the temperature of the pivot bearing (17, 18) and transmits signals to at least one evaluation unit which generates output signals depending on this evaluation, characterized in that the spindle housing comprises at least one axial bore hole (35, 36), which opens into an end face of the spindle housing and receives the temperature sensor (33, 34).
A method, comprising: generating, by processing circuitry of a virtual reality, VR, server, a virtual environment with which users (112, 112, 112, 300, 350) external to the VR server interact, the virtual environment including a virtual meeting room; receiving, from a first user (112, 300) at the VR server, a request to schedule a private meeting in the virtual meeting room of the virtual environment, the request including: a set of user identifiers identifying a set of the users (112, 112, 300, 350) authorized to attend the private meeting, and gesture data (148, 410) resulting from a gesture formed by the first user (112, 300) of the set of the users (112, 112, 300, 350) authorized to attend the private meeting; receiving, from a second user (112, 350) at the VR server, a new user identifier identifying the second user (112, 350), and new gesture data (148, 410, 420, 430, 440) generated by the second user (112, 350); and granting or denying, at the VR server, the second user (112, 350) access to the private meeting according to whether the new user identifier matches one of the set of user identifiers and whether the new gesture data (148, 410, 420, 430, 440) matches the gesture data (148, 410). generating, by processing circuitry of a virtual reality, VR, server, a virtual environment with which users (112, 112, 112, 300, 350) external to the VR server interact, the virtual environment including a virtual meeting room; receiving, from a first user (112, 300) at the VR server, a request to schedule a private meeting in the virtual meeting room of the virtual environment, the request including: a set of user identifiers identifying a set of the users (112, 112, 300, 350) authorized to attend the private meeting, and gesture data (148, 410) resulting from a gesture formed by the first user (112, 300) of the set of the users (112, 112, 300, 350) authorized to attend the private meeting; a set of user identifiers identifying a set of the users (112, 112, 300, 350) authorized to attend the private meeting, and gesture data (148, 410) resulting from a gesture formed by the first user (112, 300) of the set of the users (112, 112, 300, 350) authorized to attend the private meeting; receiving, from a second user (112, 350) at the VR server, a new user identifier identifying the second user (112, 350), and new gesture data (148, 410, 420, 430, 440) generated by the second user (112, 350); and granting or denying, at the VR server, the second user (112, 350) access to the private meeting according to whether the new user identifier matches one of the set of user identifiers and whether the new gesture data (148, 410, 420, 430, 440) matches the gesture data (148, 410).
A system for measuring cloud conditions comprising: a laser diode configured to generate a pulse of light energy; a transmitter fiber configured to receive the generated pulse of light energy and to project the received pulse of light energy into a cloud atmosphere, the projected pulse of light energy projected, without a lens, into a cloud atmosphere over a diverging field of view determined by a numerical aperture of a transmission end of the transmitter fiber; a receiver fiber having a reception end aligned proximate and substantially parallel to the transmission end of the transmitter fiber, the receiver fiber configured to receive, without a lens, a portion of the transmitted pulse of light energy backscattered by the cloud atmosphere, wherein a field of view of the receiver is substantially commensurate with the diverging field of view of the transmitter fiber; and a detector configured to detect the portion of the transmitted pulse of light energy received by the receiver fiber; and a cloud conditions metric calculator comprising a processor configured to calculate model parameters based on the received backscattered signals, wherein a numerical aperture of the reception end of the receiver fiber is substantially equal to the numerical aperture of the transmission end of the transmitter fiber. a laser diode configured to generate a pulse of light energy; a transmitter fiber configured to receive the generated pulse of light energy and to project the received pulse of light energy into a cloud atmosphere, the projected pulse of light energy projected, without a lens, into a cloud atmosphere over a diverging field of view determined by a numerical aperture of a transmission end of the transmitter fiber; a receiver fiber having a reception end aligned proximate and substantially parallel to the transmission end of the transmitter fiber, the receiver fiber configured to receive, without a lens, a portion of the transmitted pulse of light energy backscattered by the cloud atmosphere, wherein a field of view of the receiver is substantially commensurate with the diverging field of view of the transmitter fiber; and a detector configured to detect the portion of the transmitted pulse of light energy received by the receiver fiber; and a cloud conditions metric calculator comprising a processor configured to calculate model parameters based on the received backscattered signals, wherein a numerical aperture of the reception end of the receiver fiber is substantially equal to the numerical aperture of the transmission end of the transmitter fiber.
An artificial cell system comprising: at least one hydrophilic/polar droplet constrained within an amphiphilic monolayer and contained within an oil droplet to provide at least one droplet-interface bilayer which is encased within a shell wherein said shell is a hydrogel polymer and at least semi-rigid and further wherein said polymer is capable, under suitable conditions, of undergoing polymerization/depolymerization.
A method for activation comprising: (a) verifying, by a security module card, an activation server using a shared secret key and a first challenge; (b) mediating, by the security module card, in response to verifying the activation server, a verification of the activation server by a mobile device, wherein the verification uses a second challenge and a key pair; (c) encrypting, by the security module card, the second challenge using a generated key to obtain an encrypted second challenge, wherein the generated key is generated by the activation server; (d) transmitting, by the security module card, the encrypted second challenge and a third challenge to the mobile device, wherein the mobile device verifies the security module card using the encrypted second challenge; (e) receiving, by the security module card, an encrypted third challenge from the mobile device; (f) decrypting, by the security module card, the encrypted third challenge to obtain a received third challenge; (g) verifying, by the security module card, the mobile device based on the received third challenge being equal to the third challenge sent to the mobile device; and (h) sending, by the security module card, a validation of mutual trust between the security module card and the mobile device to the activation server, wherein (a) is performed before (c) and wherein (c) is performed before (h). (a) verifying, by a security module card, an activation server using a shared secret key and a first challenge; (b) mediating, by the security module card, in response to verifying the activation server, a verification of the activation server by a mobile device, wherein the verification uses a second challenge and a key pair; (c) encrypting, by the security module card, the second challenge using a generated key to obtain an encrypted second challenge, wherein the generated key is generated by the activation server; (d) transmitting, by the security module card, the encrypted second challenge and a third challenge to the mobile device, wherein the mobile device verifies the security module card using the encrypted second challenge; (e) receiving, by the security module card, an encrypted third challenge from the mobile device; (f) decrypting, by the security module card, the encrypted third challenge to obtain a received third challenge; (g) verifying, by the security module card, the mobile device based on the received third challenge being equal to the third challenge sent to the mobile device; and (h) sending, by the security module card, a validation of mutual trust between the security module card and the mobile device to the activation server,
A method, performed in a network node (31, 32) in a Core network, CN of mitigating the impact on a Radio Access Network, RAN, service level due to Internet attacks in the RAN using Internet transport, the method comprising: - receiving, from at least a network node (11, 12, 21, 22, 23) in the RAN, an intrusion detection report, the intrusion detection report comprises information about an Internet attack in the RAN, wherein the attacked network node (11, 12, 21, 22, 23) is the RAN network node (11, 12, 21, 22, 23) itself or any neighboring RAN network node (11, 12, 21, 22, 23) and wherein the core network node (31, 32) is Mobility Management Entity, MME, core-node having received the intrusion detection report over a S1-C interface; - selecting based on the information, a mitigation action, the mitigation action mitigating the impact, of the attack, on the RAN service level; and - performing the selected mitigation action to mitigate the impact on the RAN service level, wherein the selected mitigation action comprises that the MME will reject all handover requests towards an attacked RAN network node (11, 12, 21, 22, 23). - receiving, from at least a network node (11, 12, 21, 22, 23) in the RAN, an intrusion detection report, the intrusion detection report comprises information about an Internet attack in the RAN, wherein the attacked network node (11, 12, 21, 22, 23) is the RAN network node (11, 12, 21, 22, 23) itself or any neighboring RAN network node (11, 12, 21, 22, 23) and wherein the core network node (31, 32) is Mobility Management Entity, MME, core-node having received the intrusion detection report over a S1-C interface; - selecting based on the information, a mitigation action, the mitigation action mitigating the impact, of the attack, on the RAN service level; and - performing the selected mitigation action to mitigate the impact on the RAN service level, wherein the selected mitigation action comprises that the MME will reject all handover requests towards an attacked RAN network node (11, 12, 21, 22, 23).
Method for energy storage and energy delivery into an energy supply network by means of a compressed gas storage power plant, which has at least a first and a separate second storage chamber (11, 12), wherein for energy storage pressurized gas (4, 6) is withdrawn from the storage chamber (11, 12) with the lower pressure, is compressed via a compression machine and the compressed pressurized gas (4, 6) emerging from the compression machine is fed into the other storage chamber (11, 12), and for energy delivery pressurized gas (4, 6) is withdrawn from the storage chamber (11, 12) with the higher pressure, is passed through an expansion machine, and the expanded pressurized gas (4, 6) emerging from the expansion machine is transferred to the other storage space (11, 12), thereby energy being delivered from the expansion machine to the power supply network, the pressurized gas (4, 6) being heated by means of a heating device before or during the supply to the expansion machine, characterized in that the pressurized gas (4, 6) is heated by the heating device by a maximum of 50 degrees Celsius.