mhurhangee/ep-ind-claims huggingface dataset:
A traffic signal light device, comprising: a spread window; a Fresnel lens; and an LED module for emitting light, wherein the light emitted by the LED module passes through the Fresnel lens and to the spread window, wherein the LED module is disposed at a position that is offset from an axis of the spread window that passes through a center of, and is perpendicular to, the spread window, characterized in that the Fresnel lens has a saw-toothed pattern formed on one surface of the Fresnel lens, the saw-toothed pattern is formed as a plurality of concentric circles of teeth all sharing a common center that is offset from a center (C') of the Fresnel lens. a spread window; a Fresnel lens; and an LED module for emitting light, wherein the light emitted by the LED module passes through the Fresnel lens and to the spread window, wherein the LED module is disposed at a position that is offset from an axis of the spread window that passes through a center of, and is perpendicular to, the spread window, characterized in that the Fresnel lens has a saw-toothed pattern formed on one surface of the Fresnel lens, the saw-toothed pattern is formed as a plurality of concentric circles of teeth all sharing a common center that is offset from a center (C') of the Fresnel lens.
An optical fiber unit for air-blown installations comprising: a number of optical conductors, a first layer of resin material which substantially completely embeds said optical conductors, a second layer of resin material radially outer to the first layer of resin material, and a sheath of a thermoplastic material, wherein said second layer of resin material has a Secant Modulus higher than a Secant Modulus of said first layer of resin material, wherein the Secant Modulus is defined as the slope of a line between the 0 point and a point at 2.5% strain in the stress-strain curve of the cured resin material, tested at 25 °C and 50% Relative Humidity, and wherein said sheath of a thermoplastic material is over and in close contact with said second layer of resin material, and wherein a radial thickness of said sheath is between 100 μm and 250 μm. a number of optical conductors, a first layer of resin material which substantially completely embeds said optical conductors, a second layer of resin material radially outer to the first layer of resin material, and a sheath of a thermoplastic material, wherein said second layer of resin material has a Secant Modulus higher than a Secant Modulus of said first layer of resin material, wherein the Secant Modulus is defined as the slope of a line between the 0 point and a point at 2.5% strain in the stress-strain curve of the cured resin material, tested at 25 °C and 50% Relative Humidity, and wherein said sheath of a thermoplastic material is over and in close contact with said second layer of resin material, and wherein a radial thickness of said sheath is between 100 μm and 250 μm.
A method comprising: receiving, from a network function consumer in a communications system, an analytics request, said analytics request comprising one or more analytics identifications and one or more areas of interest; discovering, for at least one of the analytics identifications, by causing determination at a network repository function, NRF, of the communications system, one or more data sources in the communications system that are configured to serve a particular subset of the one or more areas of interest; transmitting, for said at least one of the analytics identifications, to each of the one or more data sources, a request for analytics information associated with the particular subset of the one or more areas of interest, said request for analytics information comprising an analytics metadata request for requesting provision of analytics metadata related to the requested analytics information; receiving, from each of the one or more data sources, an analytics output comprising the requested analytics information and the analytics metadata related to the requested analytics information; and generating an analytics output for the one or more analytics identifications and the one or more areas of interest based on each analytics output from the one or more data sources and each analytics metadata from the one or more data sources. receiving, from a network function consumer in a communications system, an analytics request, said analytics request comprising one or more analytics identifications and one or more areas of interest; discovering, for at least one of the analytics identifications, by causing determination at a network repository function, NRF, of the communications system, one or more data sources in the communications system that are configured to serve a particular subset of the one or more areas of interest; transmitting, for said at least one of the analytics identifications, to each of the one or more data sources, a request for analytics information associated with the particular subset of the one or more areas of interest, said request for analytics information comprising an analytics metadata request for requesting provision of analytics metadata related to the requested analytics information; receiving, from each of the one or more data sources, an analytics output comprising the requested analytics information and the analytics metadata related to the requested analytics information; and generating an analytics output for the one or more analytics identifications and the one or more areas of interest based on each analytics output from the one or more data sources and each analytics metadata from the one or more data sources.
A battery mounting structure for mounting a battery in a luggage space of a vehicle having a rear pillar that is placed at a boundary between a side surface and a back surface of the vehicle and that has a flange which protrudes to a front side; the battery mounting structure comprising: a battery that is to be placed in the luggage space and that has a first electric power terminal which protrudes upward near a rear end of the battery; a battery cover that covers at least a part of the battery; an insulating sheet that is attached to the battery cover so as to be positioned between the first electric power terminal and the flange. a battery that is to be placed in the luggage space and that has a first electric power terminal which protrudes upward near a rear end of the battery; a battery cover that covers at least a part of the battery; an insulating sheet that is attached to the battery cover so as to be positioned between the first electric power terminal and the flange.
An article of footwear comprising: an upper comprising a toe portion, a midfoot portion, and a heel portion; and a sole structure coupled to the upper so as to define a foot-receiving cavity therebetween, wherein the sole structure comprises a lateral side, a medial side, a midsole, a midfoot support member, and an outsole, wherein the midsole is disposed between the midfoot support member and the upper, wherein the midfoot support member comprises a lateral flange, a medial flange, a first plate, and a second plate, wherein the first plate spans from the lateral flange to the medial flange, wherein the second plate spans from the lateral flange to the medial flange, wherein the lateral flange of the midfoot support member extends further in a superior direction than the medial flange of the midfoot support member, wherein the second plate is disposed farther toward the outsole than the first plate, and wherein the second plate is spaced apart from the first plate so as to form an opening extending through the midfoot support member from the lateral side of the sole structure to the medial side of the sole structure, wherein the outsole is coupled to the midsole and the midfoot support member, wherein the sole structure further comprises one or more cushioning elements disposed between the midsole and the outsole, and wherein the one or more cushioning elements includes a first cushioning element extending in an anterior direction from the midfoot support member. an upper comprising a toe portion, a midfoot portion, and a heel portion; and a sole structure coupled to the upper so as to define a foot-receiving cavity therebetween, wherein the sole structure comprises a lateral side, a medial side, a midsole, a midfoot support member, and an outsole, wherein the midsole is disposed between the midfoot support member and the upper, wherein the midfoot support member comprises a lateral flange, a medial flange, a first plate, and a second plate, wherein the first plate spans from the lateral flange to the medial flange, wherein the second plate spans from the lateral flange to the medial flange, wherein the lateral flange of the midfoot support member extends further in a superior direction than the medial flange of the midfoot support member, wherein the second plate is disposed farther toward the outsole than the first plate, and wherein the second plate is spaced apart from the first plate so as to form an opening extending through the midfoot support member from the lateral side of the sole structure to the medial side of the sole structure, wherein the outsole is coupled to the midsole and the midfoot support member, wherein the sole structure further comprises one or more cushioning elements disposed between the midsole and the outsole, and wherein the one or more cushioning elements includes a first cushioning element extending in an anterior direction from the midfoot support member.
A computer-implemented method of determining, at a first node, a common secret that is common with the first node and a second node, wherein the first node is associated with a first asymmetric cryptography pair of an elliptic curve cryptography system common with the first node and the second node and using a generator common with the first node and the second node, the first asymmetric cryptography pair having a first node master private key (V 1C) and a first node master public key (P 1C), and the second node is associated with a second asymmetric cryptography pair of the elliptic curve cryptography system, the second asymmetric cryptography pair having a second node master private key (V 1S) and a second node master public key (P 1S), wherein the first node master public key and second node master public key are based on elliptic curve point multiplication by respective first node master private key and second node master private key of the generator, and wherein the method comprises: - determining a first node second private key (V 2C) based on at least the first node master private key (V 1C) and a deterministic key common with the first and second nodes; - determining a second node second public key (P2s) based on at least the second node master public key (P 1S) with elliptic curve point multiplication of the deterministic key and the generator; and - determining the common secret based on the first node second private key (V 2C) and the second node second public key (P2s), wherein the second node has the same common secret as the first node based on a first node second public key (P 2C) and a second node second private key (V 2S), wherein: - the first node second public key (P2c) is based on at least the first node master public key (P 1C) with elliptic curve point addition to the elliptic curve point multiplication of the deterministic key and the generator; and - the second node second private key (V 2S) is based on at least the second node master private key (V 1S) and the deterministic key. - determining a first node second private key (V 2C) based on at least the first node master private key (V 1C) and a deterministic key common with the first and second nodes; - determining a second node second public key (P2s) based on at least the second node master public key (P 1S) with elliptic curve point multiplication of the deterministic key and the generator; and - determining the common secret based on the first node second private key (V 2C) and the second node second public key (P2s), - the first node second public key (P2c) is based on at least the first node master public key (P 1C) with elliptic curve point addition to the elliptic curve point multiplication of the deterministic key and the generator; and - the second node second private key (V 2S) is based on at least the second node master private key (V 1S) and the deterministic key.
A method of filling a silo with crop material, in particular a flat silo with chopped corn, including the following method steps: a) crop material is unloaded at an unloading location at the silo, b) the unloaded crop material is introduced into the silo by means of a distribution vehicle, wherein the crop material is distributed within the silo by means of a pushing blade of the distribution vehicle and in that case is successively piled up, c) in the course of the introduction of further crop material into the silo crop material which has already been introduced is driven over by means of the distribution vehicle whereby the crop material is compacted, characterised by the following method steps: d) by means of a sensor device arranged on the distribution vehicle information concerning a surface topography of the crop material already introduced into the silo is continuously detected at least in the course of the crop material being driven over, which information is then passed to a control device, and e) the information is processed by means of the control device so that the control device is suitable for controlling a working height of the pushing blade in such a way that the crop material is successively piled up in crop material layers of an at least substantially uniform layer height. a) crop material is unloaded at an unloading location at the silo, b) the unloaded crop material is introduced into the silo by means of a distribution vehicle, wherein the crop material is distributed within the silo by means of a pushing blade of the distribution vehicle and in that case is successively piled up, c) in the course of the introduction of further crop material into the silo crop material which has already been introduced is driven over by means of the distribution vehicle whereby the crop material is compacted, d) by means of a sensor device arranged on the distribution vehicle information concerning a surface topography of the crop material already introduced into the silo is continuously detected at least in the course of the crop material being driven over, which information is then passed to a control device, and e) the information is processed by means of the control device so that the control device is suitable for controlling a working height of the pushing blade in such a way that the crop material is successively piled up in crop material layers of an at least substantially uniform layer height.
A polyester resin composition comprising, on a weight basis, 30 ppm or less of antimony, 1 to 30 ppm of titanium, 3 to 50 ppm of phosphorus, and 15 to 60 ppm of magnesium, wherein the number density of titanium-containing particles, the equivalent circular diameter of which is 1 μm or more, is less than 50/0.02 mg, wherein the polyester resin composition comprises a titanium compound having at least one substituent selected from the group consisting of an alkoxy group, a phenoxy group, an acylate group, an amino group, and a hydroxyl group, and the phosphorus-based compound is ethyl diethylphosphonoacetate.
A system for applying compression treatment to a wearer's body, the system comprising: a compression garment positionable on the wearer's body, the garment comprising an inflatable bladder and fasteners (14, 18); a conduit in fluid communication with the inflatable bladder; a garment connector attached to the conduit and in fluid communication with the conduit; a controller releasably connectable to the garment connector to establish fluid communication from the controller to the inflatable bladder via the conduit, wherein the controller, the garment connector, the conduit, and the fasteners (14, 18) each comprise respective electrically conductive portions forming at least part of an electric circuit when the controller is operatively connected in fluid communication with the garment connector to receive pressurized fluid from the controller, the fasteners (14, 18) are arranged on the garment to close the electric circuit when the fasteners (14, 18) are engaged with one another to secure the garment to the body and to open the electric circuit when the fasteners (14, 18) are substantially disengaged from one another, and the controller comprises detection circuitry configured to determine whether the compression garment is secured to the wearer's body based at least in part on detection of whether the electric circuit is open or closed; characterized in that: the electrically conductive portion (51, 52) in the conduit is located within a wall of the conduit such that the conduit electrically insulates the electrically conductive portion (51, 52) in the conduit. a compression garment positionable on the wearer's body, the garment comprising an inflatable bladder and fasteners (14, 18); a conduit in fluid communication with the inflatable bladder; a garment connector attached to the conduit and in fluid communication with the conduit; a controller releasably connectable to the garment connector to establish fluid communication from the controller to the inflatable bladder via the conduit, wherein the controller, the garment connector, the conduit, and the fasteners (14, 18) each comprise respective electrically conductive portions forming at least part of an electric circuit when the controller is operatively connected in fluid communication with the garment connector to receive pressurized fluid from the controller, the fasteners (14, 18) are arranged on the garment to close the electric circuit when the fasteners (14, 18) are engaged with one another to secure the garment to the body and to open the electric circuit when the fasteners (14, 18) are substantially disengaged from one another, and the controller comprises detection circuitry configured to determine whether the compression garment is secured to the wearer's body based at least in part on detection of whether the electric circuit is open or closed; characterized in that: the electrically conductive portion (51, 52) in the conduit is located within a wall of the conduit such that the conduit electrically insulates the electrically conductive portion (51, 52) in the conduit.
A controller configured to reduce wing bending moment on an aircraft, the aircraft having a fuselage, at least two wings (72, 74) extending from the fuselage, at least one spoiler on each respective wing (72, 74) and operable between an undeployed position and a fully deployed position, and at least one sensor provided on the aircraft configured to sense a change in shape of one wing of the at least two wings (72, 74); wherein the controller is configured to receive a signal from the at least one sensor representative of the local change in shape of at least one wing (72, 74) of the at least two wings, and is configured to deploy at least one spoiler of the at least one spoiler on each respective wing (72, 74) when the sensed local change in shape of one wing of the at least two wings (72, 74) exceeds a predetermined threshold, wherein the controller is configured to discretely deploy the spoiler at a relative local change in shape.
Incubation device for an automatic analysis apparatus, the incubation device comprising - an incubation unit having a number of reception positions for reaction vessels, - a first transfer arm having a gripping device for one or more reaction vessels, which is configured in order to move the gripping device into a first access region, - a second transfer arm having a gripping device for one or more reaction vessels, which is configured in order to move the gripping device into a second access region, wherein the first and the second access region (36, 46) do not overlap, and the incubation unit is mounted so that it can be moved in such a way that at least one of the reception positions reaches the first and the second access region (36, 46). - an incubation unit having a number of reception positions for reaction vessels, - a first transfer arm having a gripping device for one or more reaction vessels, which is configured in order to move the gripping device into a first access region, - a second transfer arm having a gripping device for one or more reaction vessels, which is configured in order to move the gripping device into a second access region,
An actuator device, comprising: - a first layer comprising or consisting of a first shape memory material which is configured to change shape from a first shape at a first temperature to a second shape at a second temperature higher than the first temperature; and - a second layer comprising or consisting of a second shape memory material, which is configured to change shape from a third shape at the second temperature to a fourth shape at a third temperature higher than the second temperature, the second layer being coupled to the first layer such that if the second layer changes to the fourth shape, the first layer changes to the first shape, characterized in that the product of the thickness and the modulus of elasticity of the second layer at the third temperature is in the range 1 to 1.1 times the product of the thickness and the modulus of elasticity of the first layer at the second temperature. - a first layer comprising or consisting of a first shape memory material which is configured to change shape from a first shape at a first temperature to a second shape at a second temperature higher than the first temperature; and - a second layer comprising or consisting of a second shape memory material, which is configured to change shape from a third shape at the second temperature to a fourth shape at a third temperature higher than the second temperature, the second layer being coupled to the first layer such that if the second layer changes to the fourth shape, the first layer changes to the first shape,
A static discharger, comprising: a basement adapted to be installed to a supporting and conductive structure of a moving body; and a discharger body adapted to be installed to the basement, characterised in that an installation orientation adjusting mechanism is provided between the basement and the discharger body, the installation orientation adjusting mechanism allowing the discharger body to be rotationally orientated, with respect to the basement, to a predetermined installation orientation during an on-site-installation of the static discharger, and the static discharger further comprises a first fixing mechanism adapted to fix the discharger body, which has been oriented to the predetermined installation orientation, to the basement. a basement adapted to be installed to a supporting and conductive structure of a moving body; and a discharger body adapted to be installed to the basement,