mhurhangee/ep-ind-claims huggingface dataset:
A connector comprising: a housing; and a plate-shaped lever which is pivotably supported by the housing and rotatable, wherein the housing includes a pair of wall sections (22, 26) opposed to each other in a rotation axis direction of the lever, wherein one wall section of the pair of wall sections (22, 26) includes a rotation shaft section protruding towards another wall section of the pair of wall sections (22, 26), characterized in that the rotation shaft section is provided in a flexible arm which is cut out from the one wall section, wherein in a natural state of the flexible arm, the lever is pivotably supported by the rotation shaft section, wherein when the lever which is not mounted is inserted between the pair of wall sections (22, 26) and comes into contact with the rotation shaft section, the flexible arm is bent in a direction away from the another wall section with interposition of the one wall section. a housing; and a plate-shaped lever which is pivotably supported by the housing and rotatable, wherein the housing includes a pair of wall sections (22, 26) opposed to each other in a rotation axis direction of the lever, wherein one wall section of the pair of wall sections (22, 26) includes a rotation shaft section protruding towards another wall section of the pair of wall sections (22, 26), characterized in that the rotation shaft section is provided in a flexible arm which is cut out from the one wall section, wherein in a natural state of the flexible arm, the lever is pivotably supported by the rotation shaft section, wherein when the lever which is not mounted is inserted between the pair of wall sections (22, 26) and comes into contact with the rotation shaft section, the flexible arm is bent in a direction away from the another wall section with interposition of the one wall section.
Firing mechanism for a sporting rifle, of the type comprising a trigger and trigger safety catch, a pawl with piston locking tooth, a counter-pawl between the pawl and the trigger, said counter-pawl is in contact by its interference zone with the pawl, - a first spring which is compressed and moved upwards when acted on by the user's finger on the trigger and which, returns trigger to its initial position when decompressed - a second spring between pawl and counter-pawl with one of the spring arms provided at the opposite side of the interference zone of the counter-pawl said counter-pawl also being kinetically coupled to trigger, locking pawl movement and releasing said lock when trigger is moved, characterised in that: - the first spring is arranged between the trigger and counter-pawl, - the second spring -- is a torsion spring, -- which is fixed to counter-pawl by inserting part of arm inside counter-pawl through orifice, -- and arranged so that, in the breakdown of forces, the necessary rotational torque of second spring is decreasing with respect to counter-pawl rotational angle. - a first spring which is compressed and moved upwards when acted on by the user's finger on the trigger and which, returns trigger to its initial position when decompressed - a second spring between pawl and counter-pawl with one of the spring arms provided at the opposite side of the interference zone of the counter-pawl said counter-pawl also being kinetically coupled to trigger, locking pawl movement and releasing said lock when trigger is moved, characterised in that: - the first spring is arranged between the trigger and counter-pawl, - the second spring -- is a torsion spring, -- which is fixed to counter-pawl by inserting part of arm inside counter-pawl through orifice, -- and arranged so that, in the breakdown of forces, the -- is a torsion spring, -- which is fixed to counter-pawl by inserting part of arm inside counter-pawl through orifice, -- and arranged so that, in the breakdown of forces, the
A method for exchanging, by a first evolved NodeB, eNB, a resource pool for device-to-device, D2D, transmission in a wireless communication system, the method, performed at the first eNB, and comprising: transmitting (S100, S110, S200, S210, S300, S310, S400), to a second eNB, information on a resource pool of the first eNB for D2D transmission; and receiving (S101, S201, S301), from the second eNB, information on a resource pool of the second eNB for D2D transmission, wherein the D2D transmission includes at least one of a D2D discovery or a D2D communication, the method being characterized in that the information on the resource pool further includes information on a D2D discovery region, which is a region that excludes in a frequency domain a guard region from a physical uplink shared channel, PUSCH, region. transmitting (S100, S110, S200, S210, S300, S310, S400), to a second eNB, information on a resource pool of the first eNB for D2D transmission; and receiving (S101, S201, S301), from the second eNB, information on a resource pool of the second eNB for D2D transmission, wherein the D2D transmission includes at least one of a D2D discovery or a D2D communication, the method being characterized in that the information on the resource pool further includes information on a D2D discovery region, which is a region that excludes in a frequency domain a guard region from a physical uplink shared channel, PUSCH, region.
A head-up display for a vehicle, the head-up display having a first housing comprising: a picture generating unit arranged to output pictures, wherein the picture generating unit comprises: a light source arranged to emit light; and a spatial light modulator arranged to receive the light from the light source and spatially-modulate the light in accordance with computer-generated light-modulation patterns displayed on the spatial light modulator to form a holographic reconstruction corresponding to each picture; and an optical system arranged to receive the pictures output by the picture generating unit and configured to operate with an optical combiner to relay the pictures to form a virtual image of each picture, wherein the optical combiner combines light output by the picture generating unit with light from a real-world scene to present combined images to a viewer within an eye-box, wherein the head-up display further comprises a second housing disposed between the first housing and the optical combiner, wherein the second housing comprises: a substantially flat optical window arranged to protect the first housing and a first layer, disposed on a first surface of the optical window, arranged to change the trajectory of light such that any sunlight reflected by the optical window is deflected away from the eye-box, wherein the first layer is arranged to mimic the curvature of a curved optical window. a picture generating unit arranged to output pictures, wherein the picture generating unit comprises: a light source arranged to emit light; and a spatial light modulator arranged to receive the light from the light source and spatially-modulate the light in accordance with computer-generated light-modulation patterns displayed on the spatial light modulator to form a holographic reconstruction corresponding to each picture; and an optical system arranged to receive the pictures output by the picture generating unit and configured to operate with an optical combiner to relay the pictures to form a virtual image of each picture, wherein the optical combiner combines light output by the picture generating unit with light from a real-world scene to present combined images to a viewer within an eye-box, wherein the head-up display further comprises a second housing disposed between the first housing and the optical combiner, wherein the second housing comprises: a substantially flat optical window arranged to protect the first housing and a first layer, disposed on a first surface of the optical window, arranged to change the trajectory of light such that any sunlight reflected by the optical window is deflected away from the eye-box, wherein the first layer is arranged to mimic the curvature of a curved optical window. a substantially flat optical window arranged to protect the first housing and a first layer, disposed on a first surface of the optical window, arranged to change the trajectory of light such that any sunlight reflected by the optical window is deflected away from the eye-box, wherein the first layer is arranged to mimic the curvature of a curved optical window.
A method of preparing a biological sample for microanalysis, the method comprising: (i) contacting the biological sample with a freeze substitution solution comprising a lithium salt under conditions effective to permit permeation of the lithium salt into the biological sample; (ii) contacting the biological sample with a first polymerizable resin under conditions effective to permit permeation of the polymerizable resin into the biological sample; (iii) disposing the biological sample in a volume of a second polymerizable resin; and (iv) heating the so-prepared biological sample to a temperature effective to cure the first polymerizable resin and the second polymerizable resin, thereby forming a 3-dimensional conductive sample block. (i) contacting the biological sample with a freeze substitution solution comprising a lithium salt under conditions effective to permit permeation of the lithium salt into the biological sample; (ii) contacting the biological sample with a first polymerizable resin under conditions effective to permit permeation of the polymerizable resin into the biological sample; (iii) disposing the biological sample in a volume of a second polymerizable resin; and (iv) heating the so-prepared biological sample to a temperature effective to cure the first polymerizable resin and the second polymerizable resin, thereby forming a 3-dimensional conductive sample block.
An apparatus comprising: an RFID reader configured for scanning items; a processor configured to determine an item category for each of the scanned items; a display configured for displaying an image associated with each determined item category (500A-500N); and an interface, coupled to the display, to receive a selection of at least one of the displayed images; characterized in that the processor is further configured to: identify at least one transponder associated with a category corresponding to the selected image; and provide notification indicative of the identified association of the at least one transponder with the category corresponding to the selected image. an RFID reader configured for scanning items; a processor configured to determine an item category for each of the scanned items; a display configured for displaying an image associated with each determined item category (500A-500N); and an interface, coupled to the display, to receive a selection of at least one of the displayed images; characterized in that the processor is further configured to: identify at least one transponder associated with a category corresponding to the selected image; and provide notification indicative of the identified association of the at least one transponder with the category corresponding to the selected image. identify at least one transponder associated with a category corresponding to the selected image; and provide notification indicative of the identified association of the at least one transponder with the category corresponding to the selected image.
A bridge adapted to: configure a Reflected Data type length value, TLV, in a reflected frame message, RFM, to be a Data TLV that contains a reflected data frame, configure a Length field as the total octets of the reflected data frame, characterised in that the bridge is further adapted to configure a Type field of the Reflected Data TLV as a Data TLV Type value, a Truncated Data TLV Type value, a Data-Part-1 TLV Type value, or a Data-Part-2 TLV Type value. configure a Reflected Data type length value, TLV, in a reflected frame message, RFM, to be a Data TLV that contains a reflected data frame, configure a Length field as the total octets of the reflected data frame, characterised in that the bridge is further adapted to configure a Type field of the Reflected Data TLV as a Data TLV Type value, a Truncated Data TLV Type value, a Data-Part-1 TLV Type value, or a Data-Part-2 TLV Type value.
A calculation method of rock water saturation, characterized in that the said rock water saturation is calculated by formula: Sw=aD fc +b; in the formula: Sw is water saturation, %; a is coefficient, (m·Hz)/F; b is regression parameter, nondimensional; D fc is permittivity dispersion, F/(m·Hz); D fc is calculated by formula; D fc = dC p df = C 0 D c f − Dc + 1 in the formula: Cp-permittivity, F/m; D c -permittivity dispersion index, nondimensional; f-frequency, Hz; C 0 -permittivity coefficient, F; Cp, C 0 and D c are related by formula: Cp = C 0 f − Dc comprising the following steps: measuring the geometric diameter and weight of the core; measuring rock water saturation by displacing saturation; completely saturating the rock with saline solution of a certain concentration, with the first saturation Sw=100%; measuring the permittivity parameter of the rock in a frequency band (1Hz-10kHz) in case of Sw=100%, and saving relevant data; changing the rock water saturation by displacing saturation, reducing the rock water saturation, and then measuring the permittivity parameter of the rock in the same frequency band after displacement; establishing a Cp-f cross plot by fitting to obtain a permittivity-frequency index relation equation as shown in the formula by fitting, wherein the fitting parameters in the formula are C 0 and D c; calculating dispersion D fc for each saturation level according to the formula; and saving core saturation and the calculated dispersion data, and establishing an Sw-D fc cross plot by fitting said saved values to obtain a water saturation-dispersion relation equation according to the formula. Sw is water saturation, %; a is coefficient, (m·Hz)/F; b is regression parameter, nondimensional; D fc is permittivity dispersion, F/(m·Hz); D fc is calculated by formula; D fc = dC p df = C 0 D c f − Dc + 1 Cp-permittivity, F/m; D c -permittivity dispersion index, nondimensional; f-frequency, Hz; C 0 -permittivity coefficient, F; measuring the geometric diameter and weight of the core; measuring rock water saturation by displacing saturation; completely saturating the rock with saline solution of a certain concentration, with the first saturation Sw=100%; measuring the permittivity parameter of the rock in a frequency band (1Hz-10kHz) in case of Sw=100%, and saving relevant data; changing the rock water saturation by displacing saturation, reducing the rock water saturation, and then measuring the permittivity parameter of the rock in the same frequency band after displacement; establishing a Cp-f cross plot by fitting to obtain a permittivity-frequency index relation equation as shown in the formula by fitting, wherein the fitting parameters in the formula are C 0 and D c; calculating dispersion D fc for each saturation level according to the formula; and saving core saturation and the calculated dispersion data, and establishing an Sw-D fc cross plot by fitting said saved values to obtain a water saturation-dispersion relation equation according to the formula.
An isotropic Zero-Order Diffractive optical filter, -comprising: high-index refraction material positioned between low-index-refraction matter; wherein at least some of said high-index refraction material has a grated structure and lateral and vertical dimensions with respect to said low-index-refraction matter such that said high-index refraction material is operative to act as a leaky waveguide for light incident on said optical Zero-Order Diffractive Optical filter; wherein said grated structure comprises at least two different grating patterns; wherein each of said at least two grating patterns constitutes a subpixel; and wherein a plurality of subpixels is operative to diffract incident light to at least two zero-order wavelength spectra respective of said at least two grating patterns such that the colour effect exhibited by the isotropic Zero-Order Diffractive optical filter with respect to the rotational orientations of said isotropic Zero-Order Diffractive optical filter remains unchanged or hardly distinguishable by the human eye, compared to a characteristic colour change effect the isotropic Zero-Order Diffractive optical filter exhibits with respect to different tilting orientations. high-index refraction material positioned between low-index-refraction matter; wherein at least some of said high-index refraction material has a grated structure and lateral and vertical dimensions with respect to said low-index-refraction matter such that said high-index refraction material is operative to act as a leaky waveguide for light incident on said optical Zero-Order Diffractive Optical filter; wherein said grated structure comprises at least two different grating patterns; wherein each of said at least two grating patterns constitutes a subpixel; and wherein a plurality of subpixels is operative to diffract incident light to at least two zero-order wavelength spectra respective of said at least two grating patterns such that the colour effect exhibited by the isotropic Zero-Order Diffractive optical filter with respect to the rotational orientations of said isotropic Zero-Order Diffractive optical filter remains unchanged or hardly distinguishable by the human eye, compared to a characteristic colour change effect the isotropic Zero-Order Diffractive optical filter exhibits with respect to different tilting orientations.
A universal network interface controller, UNIC, located in a host computer, comprising: a switch fabric interface adapted to interface switch fabric data in a memory associated with the host computer with a switch fabric; a packet network interface adapted to interface packet network data in said memory associated with the host computer with a packet network; and a virtual output queue for queuing said switch fabric data and said packet network data based on local queuing information associated with a switch fabric endpoint, the switch fabric endpoint coupled to the UNIC via the switch fabric and coupled to the UNIC via the packet network. a switch fabric interface adapted to interface switch fabric data in a memory associated with the host computer with a switch fabric; a packet network interface adapted to interface packet network data in said memory associated with the host computer with a packet network; and a virtual output queue for queuing said switch fabric data and said packet network data based on local queuing information associated with a switch fabric endpoint, the switch fabric endpoint coupled to the UNIC via the switch fabric and coupled to the UNIC via the packet network.
Method for franking mail items which are fed to a franking machine, such as envelopes, padded envelopes, wrappers, cards, labels, printed products or the like, which are removed from a stack from/on the underside for separation and/or are fed individually on a conveying line which is connected upstream of the franking machine to a printing unit which has a print head for franking and, after franking, are discharged from the printing unit in the opposite conveying direction, the mail items being fed via a diverter section of the conveying line to the franking machine and, after franking, being conveyed via the diverter section which is shifted in order to change the conveying direction of the mail items into a delivery apparatus which is arranged below the diverter section, the mail items being guided into the printing position in the mouth region of the franking machine and being returned from the printing position, characterized in that the printing position of a mail item which is fed in each case to the printing unit is determined by way of the print head, the movement of which is controlled out of a standby position in accordance with the format length of the said mail item.
A stationary exercise machine (10; 100) having reciprocating foot pedals (32; 132) that move in respective foot pedal closed loop paths (60, 62), the machine comprising a rotating air-resistance based mechanism (50; 150) and a magnetism based mechanism which are configured to provide variable resistance to movement of the reciprocating foot pedals; characterised by: wherein each foot pedal non-circular closed loop (60, 62) path defines a major axis extending between two points in the foot pedal closed loop path that are furthest apart from each other, and the major axis of each foot pedal closed loop path is inclined at least 45° relative to a horizontal plane.
A coating system for a component of a gas turbine engine, the coating system comprising a bond coat layer and a thermal barrier coating layer above the bond coat layer, wherein the bond coat layer has a roughness Ra of its surface facing the thermal barrier coating layer in a range 12.8-19.0 micrometers, and the thermal barrier coating layer has a thickness in the range 200-700 micrometers and a porosity in the range 15.0-23.0 vol %, with ends of ranges included in the ranges, characterised in that the bond coat layer has a thickness in the range 180-300 micrometers.
A knee balancing system for facilitating a knee arthroplasty procedure, the system comprising: a force sensor configured to sense one or more forces applied within a knee joint, including a force applied on a medial side of the knee joint and a force applied on a lateral side of the knee joint; a main body, a moveable sensor platform coupled between the force sensor and the main body; and an adjustment mechanism, characterised in that the adjustment mechanism includes a medial track and a lateral track, each track including one or more actuating ramped surfaces in fixed locations along the respective track and configured to adjust the moveable sensor platform relative to the main body. a force sensor configured to sense one or more forces applied within a knee joint, including a force applied on a medial side of the knee joint and a force applied on a lateral side of the knee joint; a main body, a moveable sensor platform coupled between the force sensor and the main body; and an adjustment mechanism, characterised in that the adjustment mechanism includes a medial track and a lateral track, each track including one or more actuating ramped surfaces in fixed locations along the respective track and configured to adjust the moveable sensor platform relative to the main body.
Heel intended to be joined to a tunnel box for receiving a roller shutter mechanism, the tunnel box comprising two leg walls (B1, B2), the heel comprising two troughs (110a, 110b) joined together by way of a connecting plate such that the two troughs (110a, 110b) can overlap the two legs (B1, B2) at one side of the tunnel box, each trough consisting of a profiled element with a U-shaped cross section and defined by a bottom wall (Pf), bordered on either side by two side walls, the profiled element being designed to fit on the end of a leg, the heel being in one piece, characterized in that the bottom wall (Pf) is indented from one of its two free edges, thereby delimiting a passage (Ps) between the two side walls (Pl), such that an insertion flange (Ai) of a profiled element can pass through said passage so as to be received in a leg wall.
Cam follower roller device comprising a tappet body, an insert mounted in the tappet body and provided with a central core and with at least two side tabs (26, 28), a pin mounted at least on said tabs of the insert, and a roller mounted on said pin, characterized in that the insert further comprises at least one stiffener (44, 46) disposed between the core and each tab (26, 28) and extending towards the roller.