mhurhangee/ep-ind-claims huggingface dataset:
An inflatable buoyant platform comprising: a hollow inflatable enclosure having a top surface and a bottom surface, the top and the bottom surfaces (165,170) being peripherally joined by a flexible curtain; characterized by a support means being provided inside the enclosure whereby the support means adopts an extended form inside the enclosure to enhance the rigidity of the enclosure when the platform is inflated, while the support means adapts a retracted form inside the enclosure when the enclosure is deflated; at least one inflating valve on the enclosure for inflating the enclosure by an external source of compressed gas; at least one deflating valve on the enclosure for deflating the enclosure by the external source of compressed gas; and at least one exit valve on the enclosure for allowing the compressed gas to escape while deflating the enclosure. a hollow inflatable enclosure having a top surface and a bottom surface, the top and the bottom surfaces (165,170) being peripherally joined by a flexible curtain; characterized by a support means being provided inside the enclosure whereby the support means adopts an extended form inside the enclosure to enhance the rigidity of the enclosure when the platform is inflated, while the support means adapts a retracted form inside the enclosure when the enclosure is deflated; at least one inflating valve on the enclosure for inflating the enclosure by an external source of compressed gas; at least one deflating valve on the enclosure for deflating the enclosure by the external source of compressed gas; and at least one exit valve on the enclosure for allowing the compressed gas to escape while deflating the enclosure.
Method for refining a metal coating on a steel strip or steel sheet, wherein the coating is melted on by inductive heating by means of at least one induction coil to a maximum temperature above the melting temperature (T s) of the material of the coating and then cooled in a cooling device to a quenching temperature (T A) lying below the melting temperature, characterised in that the coating is held at a temperature above the melting temperature (T s) for a holding time (t h) and in that the holding time (t h) is adapted to the maximum temperature and the thickness of the coating by moving at least one of the induction coils in relation to the cooling device in order to melt the coating on completely over its entire thickness down to the boundary layer with the steel strip.
A load balancing method, comprising: sending, by a terminal device, a first request message to a load balancing device, wherein the first request message is used to request to-be-transmitted data and an internet protocol, IP, address of a content delivery network, CDN, server that may provide the to-be-transmitted data; selecting, by the load balancing device, for the terminal device based on a load balancing policy, a CDN that may serve the terminal; sending, by the load balancing device, the first request message to the selected CDN server by using an IP tunnel; receiving, by the terminal device, a first response message sent by the CDN server, wherein the first response message comprises a length of the to-be-transmitted data and the IP address of the CDN server, and a source IP address of the first response message is an IP address of the load balancing device; and sending, by the terminal device, an acknowledgement, ACK, packet of the first response message to the load balancing device, wherein the IP destination address of the ACK packet is the IP address of the load balancing device, forwarding, by the load balancing device, the ACK packet to the selected CDN server by using the IP tunnel; when the terminal device determines that the length of the to-be-transmitted data is greater than or equal to a preset threshold, establishing, by the terminal device, a connection to the CDN server based on the IP address of the CDN server, receiving, by the terminal device, subsequent content of the to-be-transmitted data by using the connection with the CDN server. sending, by a terminal device, a first request message to a load balancing device, wherein the first request message is used to request to-be-transmitted data and an internet protocol, IP, address of a content delivery network, CDN, server that may provide the to-be-transmitted data; selecting, by the load balancing device, for the terminal device based on a load balancing policy, a CDN that may serve the terminal; sending, by the load balancing device, the first request message to the selected CDN server by using an IP tunnel; receiving, by the terminal device, a first response message sent by the CDN server, wherein the first response message comprises a length of the to-be-transmitted data and the IP address of the CDN server, and a source IP address of the first response message is an IP address of the load balancing device; and sending, by the terminal device, an acknowledgement, ACK, packet of the first response message to the load balancing device, wherein the IP destination address of the ACK packet is the IP address of the load balancing device, forwarding, by the load balancing device, the ACK packet to the selected CDN server by using the IP tunnel; when the terminal device determines that the length of the to-be-transmitted data is greater than or equal to a preset threshold, establishing, by the terminal device, a connection to the CDN server based on the IP address of the CDN server, receiving, by the terminal device, subsequent content of the to-be-transmitted data by using the connection with the CDN server.
A method for receiving control information in a wireless communication system using orthogonal frequency division multiplexing, OFDM, the method comprising: receiving and identifying the control information on a physical uplink control channel, PUCCH, a resource of the PUCCH being identified by a resource index; and transmitting data based on the identified control information, wherein if n s mod2=1, where n s is an index of a slot in which the control information is identified, the resource index of the PUCCH is established by n ' n s = ⌊ h c ⌋ + h mod c ⋅ N ' Δ shift PUCCH, if n PUCCH 1 < c ⋅ N CS 1 Δ shift PUCCH where: h = n ' n s − 1 + d mod cN ' / Δ shift PUCCH, and d = { d 1 for normal cyclic prefix d 2 for extended cyclic prefix, where n PUCCH 1 is an intermediate parameter for resource mapping of the PUCCH, N cs 1 is a number of cyclic shifts used for the PUCCH in a resource block, N sc RB is a number of subcarriers in one resource block, Δ shift PUCCH is set by one or more higher layers, and c = { 3 for the normal cyclic prefix 2 for the extended cyclic prefix; wherein if n s mod2=0, where n s is an index of the slot in which the control information is identified, the resource index of the PUCCH is established by: n ' n s = { if n PUCCH 1 < c ⋅ N cs 1 / Δ shift PUCCH, n PUCCH 1 otherwise, n PUCCH 1 − c ⋅ N cs 1 / Δ shift PUCCH mod c ⋅ N sc RB / Δ shift PUCCH. receiving and identifying the control information on a physical uplink control channel, PUCCH, a resource of the PUCCH being identified by a resource index; and transmitting data based on the identified control information, wherein if n s mod2=1, where n s is an index of a slot in which the control information is identified, the resource index of the PUCCH is established by n ' n s = ⌊ h c ⌋ + h mod c ⋅ N ' Δ shift PUCCH, if n PUCCH 1 < c ⋅ N CS 1 Δ shift PUCCH where: h = n ' n s − 1 + d mod cN ' / Δ shift PUCCH, and d = { d 1 for normal cyclic prefix d 2 for extended cyclic prefix, where n PUCCH 1 is an intermediate parameter for resource mapping of the PUCCH, N cs 1 is a number of cyclic shifts used for the PUCCH in a resource block, N sc RB is a number of subcarriers in one resource block, Δ shift PUCCH is set by one or more higher layers, and c = { 3 for the normal cyclic prefix 2 for the extended cyclic prefix; wherein if n s mod2=0, where n s is an index of the slot in which the control information is identified, the resource index of the PUCCH is established by: n ' n s = { if n PUCCH 1 < c ⋅ N cs 1 / Δ shift PUCCH, n PUCCH 1 otherwise, n PUCCH 1 − c ⋅ N cs 1 / Δ shift PUCCH mod c ⋅ N sc RB / Δ shift PUCCH.
Assembly comprising: - a spray means being an airbrush comprising a pickup chamber subjected to a stream of entrainment air, - a dispenser comprising at least two compartments containing different base products, the compartments being pressurized by way of volumetric metering devices, and the products being delivered to the spray means via distinct dispensing orifices, in which the airbrush comprises a stylus defining the pickup chamber, the stylus being attached to the dispenser or to an outlet interface fixed to the dispenser, and in which the mixing of the base products is carried out directly in the airbrush. - a spray means being an airbrush comprising a pickup chamber subjected to a stream of entrainment air, - a dispenser comprising at least two compartments containing different base products, the compartments being pressurized by way of volumetric metering devices, and the products being delivered to the spray means via distinct dispensing orifices,
Submarine having at least one emergency exit lock, wherein the emergency exit lock has arranged therein a holding device for releasable fastening to a submarine rescue suit having a first traction means connected to the submarine structure and having a second traction means fastened to the submarine structure, wherein the first traction means comprises at its free end a fitting which can be fastened to the submarine rescue suit, and the second traction means is connected to a fastener formed on the fitting of the first traction means and is provided for automatically releasing the first traction means, characterized in that the first traction means is designed to hold a person located in the emergency exit lock in a desired position against the buoyancy force during the flooding of the emergency exit lock.
A micro-optical system for the synthesis of images consisting of individual dots with kinetic effects of their motion, the micro-optical system having the form of a single-layer flat microrelief optical phase element with two types of circular off-axis Fresnel lenses, wherein the Fresnel lenses of the first type are concave Fresnel lenses, and the Fresnel lenses of the second type are convex Fresnel lenses, the Fresnel lenses having a saddle-shaped or a paraboloid phase function, the Fresnel lenses having a diameter from 0.5 to 3 mm, and wherein identical Fresnel lenses are made intersecting, wherein the domain of intersection of the microrelief of a first and second identical Fresnel lens is subdivided into subdomains which have the form of alternating odd and even bands whose width is less than 50 microns, and the microrelief of the first and second Fresnel lens forms in the odd and even bands, respectively, wherein when the micro-optical system is illuminated by a point light source and tilted with respect to the observer, the image fragments produced by the Fresnel lenses of the first and second type shift in opposite directions.
An electrostatic-type transducer (3, 100, 200, 300, 400, 500, 600, 700, 800, 900), comprising: an insulator sheet (11, 101) formed of an elastomer; a plurality of first electrode sheets (12, 13, 14, 102a, 102b, 202a, 202b, 302a, 302b, 302c, 402a, 402b, 502a, 502b, 502c, 602a, 602b, 702a, 702b, 802a, 802b, 902a, 902b) which is arranged on a front surface side of the insulator sheet (11, 101), adhered to the insulator sheet (11, 101) by fusion of the insulator sheet, and arranged with a distance from each other in a surface direction of the insulator sheet (11, 101); one second electrode sheet (15, 103) which is disposed on a back surface side of the insulator sheet (11, 101), adhered to the insulator sheet (11, 101) by fusion of the insulator sheet (11, 101), and in which portions facing the plurality of first electrode sheets (12, 13, 14, 102a, 102b, 202a, 202b, 302a, 302b, 302c, 402a, 402b, 502a, 502b, 502c, 602a, 602b, 702a, 702b, 802a, 802b, 902a, 902b) and portions facing each region between the adjacent first electrode sheets(12, 13, 14, 102a, 102b, 202a, 202b, 302a, 302b, 302c, 402a, 402b, 502a, 502b, 502c, 602a, 602b, 702a, 702b, 802a, 802b, 902a, 902b) in the surface direction are formed integrally; and characterized by a heater sheet laminated on a back surface side of the second electrode sheet (15, 103). an insulator sheet (11, 101) formed of an elastomer; a plurality of first electrode sheets (12, 13, 14, 102a, 102b, 202a, 202b, 302a, 302b, 302c, 402a, 402b, 502a, 502b, 502c, 602a, 602b, 702a, 702b, 802a, 802b, 902a, 902b) which is arranged on a front surface side of the insulator sheet (11, 101), adhered to the insulator sheet (11, 101) by fusion of the insulator sheet, and arranged with a distance from each other in a surface direction of the insulator sheet (11, 101); one second electrode sheet (15, 103) which is disposed on a back surface side of the insulator sheet (11, 101), adhered to the insulator sheet (11, 101) by fusion of the insulator sheet (11, 101), and in which portions facing the plurality of first electrode sheets (12, 13, 14, 102a, 102b, 202a, 202b, 302a, 302b, 302c, 402a, 402b, 502a, 502b, 502c, 602a, 602b, 702a, 702b, 802a, 802b, 902a, 902b) and portions facing each region between the adjacent first electrode sheets(12, 13, 14, 102a, 102b, 202a, 202b, 302a, 302b, 302c, 402a, 402b, 502a, 502b, 502c, 602a, 602b, 702a, 702b, 802a, 802b, 902a, 902b) in the surface direction are formed integrally; and characterized by a heater sheet laminated on a back surface side of the second electrode sheet (15, 103).
A tacky material comprising: a nonwoven substrate having a basis weight of from 35 gsm to 500 gsm comprising, based on the total weight of the substrate, from 30 weight percent to 95 weight percent matrix fibers and from 5 weight percent to 70 weight percent of a binder, wherein the substrate comprises a plurality of strata, and wherein the substrate comprises cellulose fibers; and a tacky adhesive, wherein the tacky adhesive is on the surface of the substrate. a nonwoven substrate having a basis weight of from 35 gsm to 500 gsm comprising, based on the total weight of the substrate, from 30 weight percent to 95 weight percent matrix fibers and from 5 weight percent to 70 weight percent of a binder, wherein the substrate comprises a plurality of strata, and wherein the substrate comprises cellulose fibers; and a tacky adhesive, wherein the tacky adhesive is on the surface of the substrate.
A vitrectomy probe (100, 200), comprising: a housing (102, 202); an actuator (150, 250) disposed inside the housing (102, 202); a cutter coupled to the actuator and extending from the housing; an air turbine disposed inside the housing, the air turbine comprising: a rotor; and a plurality of turbine blades coupled to the rotor; and a valve body interfacing with the rotor, wherein during rotation of the air turbine, air is selectively routed to and from the actuator according to a rotational position of the rotor in relation to the valve body, thereby reciprocating the cutter. a housing (102, 202); an actuator (150, 250) disposed inside the housing (102, 202); a cutter coupled to the actuator and extending from the housing; an air turbine disposed inside the housing, the air turbine comprising: a rotor; and a plurality of turbine blades coupled to the rotor; and a rotor; and a plurality of turbine blades coupled to the rotor; and a valve body interfacing with the rotor, wherein during rotation of the air turbine, air is selectively routed to and from the actuator according to a rotational position of the rotor in relation to the valve body, thereby reciprocating the cutter.
A copolymer of propylene with ethylene and optionally other olefins of formula CH2-CHR in which R is an alkyl group containing from 2 to 10 carbon atoms, said copolymer comprising from 3.8% to 5.5% by weight of ethylene and having a melt flow rate according to ISO 1133 (230 °C, 2.16 Kg) in the range from 3 g/10 min to 9 g/10 min and a melting temperature (Tm), determined by DSC, in the range from 142 °C to 145 °C and satisfying the following relation: 145 °C ≤ Tm + C ≤ 150 °C wherein C is the quantity (by weight) of ethylene.
Method for determining a destination of a person by means of a destination detection unit, wherein the determination is based on a likelihood of the person moving towards the destination, and wherein the method has at least the following steps: - detecting at least one object, which is carried by the person, multiple times, - comparing the objects remaining with the person after the start of a movement with the objects that were detected first, - excluding, in a first detection, objects that were captured regularly in a learning process but are no longer with the person after the start of the movement, - determining the likely destination from the at least one detected object. - detecting at least one object, which is carried by the person, multiple times, - comparing the objects remaining with the person after the start of a movement with the objects that were detected first, - excluding, in a first detection, objects that were captured regularly in a learning process but are no longer with the person after the start of the movement, - determining the likely destination from the at least one detected object.
A composter comprising: a compost chamber; a heat exchanger; a condensate reservoir fluidly coupled downstream of said heat exchanger; a first fluid pathway fluidly coupling the composting chamber and the condensate reservoir; a second fluid pathway coupling ambient air and the condensate reservoir and in heat transfer juxtaposition with the first fluid pathway; and a fan moving air from the composting chamber to the condensate reservoir along the first fluid pathway to define a first airflow and moving ambient air to the condensate reservoir along the second fluid pathway to define a second airflow; wherein the second fluid pathway is fluidly isolated from the first fluid pathway, the first and second airflows are arranged in a heat transfer juxtaposition in the heat exchanger and mix in the condensate reservoir. a compost chamber; a heat exchanger; a condensate reservoir fluidly coupled downstream of said heat exchanger; a first fluid pathway fluidly coupling the composting chamber and the condensate reservoir; a second fluid pathway coupling ambient air and the condensate reservoir and in heat transfer juxtaposition with the first fluid pathway; and a fan moving air from the composting chamber to the condensate reservoir along the first fluid pathway to define a first airflow and moving ambient air to the condensate reservoir along the second fluid pathway to define a second airflow; wherein the second fluid pathway is fluidly isolated from the first fluid pathway, the first and second airflows are arranged in a heat transfer juxtaposition in the heat exchanger and mix in the condensate reservoir.
Cooling circuit for a drive train of a motor vehicle, wherein the drive train has at least one first electric machine for providing a first drive power for a first axle of the motor vehicle and at least one second electric machine for providing a second drive power for a second axle of the motor vehicle; wherein the cooling circuit has at least one pump for conveying a cooling fluid through the cooling circuit, wherein at least the first electric machine and the second electric machine are arranged in sections (10, 11) of the cooling circuit connected in parallel to each other; wherein a volume flow conveyed by the at least one pump is divided via at least one restrictor in a prespecified ratio into a first partial volume flow for a first section and into a second partial volume flow for a second section of the cooling circuit.
A sensing apparatus comprising: a displacement sensor comprising capacitance measurement circuitry configured to provide a displacement sensor output signal indicative of a separation between a frame element and a displacement element movably mounted with respect to the frame element; a touch sensor comprising measurement circuitry configured to provide a touch sensor output signal indicative of when an object is determined to be touching the displacement element; and a processing element configured to output a detection signal to indicate there is determined to be a displacement of the displacement element relative to the frame element in response to determining the touch sensor output signal indicates an object is touching the displacement element and a difference between the displacement sensor output signal and a baseline displacement sensor output signal exceeds a threshold value, characterised in that when the touch sensor outputs a touch sensor output signal indicative of when an object is determined to be touching the displacement element, the baseline displacement sensor output signal is determined from the displacement sensor output signal during a time period defined by when the touch sensor output signal initially indicates the object is touching the displacement element, as a fixed value for the duration of the detected touch of the object a displacement sensor comprising capacitance measurement circuitry configured to provide a displacement sensor output signal indicative of a separation between a frame element and a displacement element movably mounted with respect to the frame element; a touch sensor comprising measurement circuitry configured to provide a touch sensor output signal indicative of when an object is determined to be touching the displacement element; and a processing element configured to output a detection signal to indicate there is determined to be a displacement of the displacement element relative to the frame element in response to determining the touch sensor output signal indicates an object is touching the displacement element and a difference between the displacement sensor output signal and a baseline displacement sensor output signal exceeds a threshold value, characterised in that when the touch sensor outputs a touch sensor output signal indicative of when an object is determined to be touching the displacement element, the baseline displacement sensor output signal is determined from the displacement sensor output signal during a time period defined by when the touch sensor output signal initially indicates the object is touching the displacement element, as a fixed value for the duration of the detected touch of the object
Component assembly having at least one functional component, in particular for a motor vehicle, and having a holding component, wherein the functional component is secured to the holding component by pressing a connection element of the functional component into a depression provided in the holding component and formed in the manner of a blind hole, wherein the connection element, in a non-deformed state, protrudes in a press-in direction from a main body of the functional component and is designed to be converted into a deformed state when a force acting in the press-in direction is applied to the main body, in which deformed state the connection element is expanded in a free end region and the free end region of the connection element is introduced into a wall of the holding component which bounds the depression of the holding component in the circumferential direction, wherein the main body of the functional component has a contact surface which encircles the connection element and which lies against a bearing surface of the holding component when the functional component is in a coupled state in which the functional component is secured to the holding component by the connection element being pressed into the depression, wherein a functional module of the functional component is provided by a sub-region of the main body facing away from the contact surface.