mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications, the method comprising: requesting, by a wireless docking station, at least one service discovery parameter from a peripheral device employing an unrecognized peripheral function protocol PFP, the at least one service discovery parameter comprising a transport protocol identifier or a port identifier, wherein the unrecognized PFP is a PFP being unknown to the wireless docking station; receiving, at the wireless docking station, the at least one service discovery parameter from the peripheral device in response to the requesting; and transmitting, from the wireless docking station, service discovery information to a wireless dockee, the service discovery information based at least in part on the at least one service discovery parameter received from the peripheral device. requesting, by a wireless docking station, at least one service discovery parameter from a peripheral device employing an unrecognized peripheral function protocol PFP, the at least one service discovery parameter comprising a transport protocol identifier or a port identifier, wherein the unrecognized PFP is a PFP being unknown to the wireless docking station; receiving, at the wireless docking station, the at least one service discovery parameter from the peripheral device in response to the requesting; and transmitting, from the wireless docking station, service discovery information to a wireless dockee, the service discovery information based at least in part on the at least one service discovery parameter received from the peripheral device.
A method of producing arginine bicarbonate comprising: contacting carbon dioxide gas having a pressure of from 6895 Pa (1 psi) to 68947 Pa (10 psi) with a starting slurry containing arginine at a temperature of 60°C to 80°C to form a slurry or solution including arginine and bicarbonate anion; contacting the slurry or solution with carbon dioxide until the slurry or solution forms a solution having a pH below 9; and recovering arginine bicarbonate from the solution. contacting carbon dioxide gas having a pressure of from 6895 Pa (1 psi) to 68947 Pa (10 psi) with a starting slurry containing arginine at a temperature of 60°C to 80°C to form a slurry or solution including arginine and bicarbonate anion; contacting the slurry or solution with carbon dioxide until the slurry or solution forms a solution having a pH below 9; and recovering arginine bicarbonate from the solution.
A method of modifying a strap tensioning device setting of a strap tensioning device, said method comprising: pairing a user device and the strap tensioning device such that a wireless communication device of the user device and a wireless communication device of the strap tensioning device can communicate with one another over a network; receiving, by an input device of the user device, a modification to a strap tensioning device setting of the paired strap tensioning device; and communicating, by the wireless communication device of the user device, the modification of the strap tensioning device setting to the wireless communication device of the paired strap tensioning device to cause the paired strap tensioning device to change the strap tensioning device setting in accordance with the modification, characterized in that the strap tensioning device setting cannot be modified other than via receipt of the modification from the wireless communication device of the user device. pairing a user device and the strap tensioning device such that a wireless communication device of the user device and a wireless communication device of the strap tensioning device can communicate with one another over a network; receiving, by an input device of the user device, a modification to a strap tensioning device setting of the paired strap tensioning device; and communicating, by the wireless communication device of the user device, the modification of the strap tensioning device setting to the wireless communication device of the paired strap tensioning device to cause the paired strap tensioning device to change the strap tensioning device setting in accordance with the modification, characterized in that the strap tensioning device setting cannot be modified other than via receipt of the modification from the wireless communication device of the user device.
Furniture system having a three-dimensional load-bearing tube structure, comprising a) a plurality of tubes, wherein at least one of the tubes has two contact faces (201, 212) of different polarity which are arranged in the interior of the tube; b) a plurality of three-dimensional node elements for mechanically fastening two or more tubes to one another; c) at least one load module for insertion into the at least one tube, wherein the load module comprises an elongate housing, and wherein two contact elements (351, 352) for making electrical contact with the load module, which contact elements have different polarities, are arranged on an outer side of the housing, characterized in that the contact elements (351, 352) are arranged in such a way that they make contact with the two contact faces (201, 212) of different polarity, which are arranged in the interior of the tube, substantially in the radial direction when the load module is in the inserted state. a) a plurality of tubes, wherein at least one of the tubes has two contact faces (201, 212) of different polarity which are arranged in the interior of the tube; b) a plurality of three-dimensional node elements for mechanically fastening two or more tubes to one another; c) at least one load module for insertion into the at least one tube, wherein the load module comprises an elongate housing, and wherein two contact elements (351, 352) for making electrical contact with the load module, which contact elements have different polarities, are arranged on an outer side of the housing, characterized in that the contact elements (351, 352) are arranged in such a way that they make contact with the two contact faces (201, 212) of different polarity, which are arranged in the interior of the tube, substantially in the radial direction when the load module is in the inserted state.
Electrical connector comprising at least one insert, said insert comprising: a front part comprising a front insulator attached to a front tight-sealing element and a rear part comprising a rear insulator attached to a rear tight-sealing element, the front part and the rear part being at least partially made of thermoplastic material, the front and rear tight-sealing elements and the insulators are made in the form of plates, and a plurality of cavities passing through from one side to the other of the front part and the rear part of the insert, each cavity being capable of receiving an electrical contact, characterized in that the insert has a protection element placed between the front insulator and the rear insulator of which the thickness is substantially identical to the thickness of the front insulator and having a plate shape with an outline of dimensions substantially identical to the external dimensions of the front part and rear part of the insert, this protection element being made of a flame-insensitive material capable, under the effect of high temperature, of maintaining a predefined distance between the electrical contacts, said protection element is attached to a front insulator of the front part and to a rear insulator of the rear part of the insert to form one and the same element. a front part comprising a front insulator attached to a front tight-sealing element and a rear part comprising a rear insulator attached to a rear tight-sealing element, the front part and the rear part being at least partially made of thermoplastic material, the front and rear tight-sealing elements and the insulators are made in the form of plates, and a plurality of cavities passing through from one side to the other of the front part and the rear part of the insert, each cavity being capable of receiving an electrical contact, characterized in that the insert has a protection element placed between the front insulator and the rear insulator of which the thickness is substantially identical to the thickness of the front insulator and having a plate shape with an outline of dimensions substantially identical to the external dimensions of the front part and rear part of the insert, this protection element being made of a flame-insensitive material capable, under the effect of high temperature, of maintaining a predefined distance between the electrical contacts, said protection element is attached to a front insulator of the front part and to a rear insulator of the rear part of the insert to form one and the same element.
A valve lift device for a combustion engine, which valve lift device comprises a camshaft with a rotational axis, a first unit with a first contact means adapted to being in contact with a guide surface on the camshaft, which first unit is adapted to undergoing a lift when the first contact means comes into contact with a protruding portion of the guide surface, and a motion-transmitting mechanism adapted to converting the lifting movement of the unit to a lift of at least one valve of the combustion engine, wherein the valve lift device comprises an adjusting device adapted to allowing linear movements of the first unit and hence of the first contact means in a plane which is perpendicular to the camshaft's rotational axis between at least a first contact position (9a 1) on the guide surface and a second contact position (9a 2) on the guide surface, characterized in that the valve lift device comprises a second unit comprising a second contact means adapted to being in contact with a second peripheral guide surface on the camshaft, which second unit is adapted to undergoing a lift when the second contact means comes into contact with a protruding portion of the guide surface, wherein said first and second units (16, 17) are connected to the motion-transmitting mechanism in such a way that the unit (16, 17) which at the time undergoes the higher lift of its guide surface (6, 7) transmits that lift to said valve and that one of said units is directly connected to the motion-transmitting mechanism and that the other unit comprises a contact portion adapted to entering into engagement with a contact portion of the directly connected unit and to lifting the latter when said other unit undergoes a higher lift of its guide surface than the directly connected unit.
A centrifugal compressor system comprising: a compressor with a housing defining a compressor chamber; an impeller disposed to rotate in the compressor chamber; a diffuser extending around the impeller and configured to collect fluid leaving the impeller; an exit through which a main flow of the fluid is discharged from the diffuser, the exit providing an opening that extends circumferentially around the compressor; a bleed annulus extending around the compressor and having a consistent cross-sectional area around the compressor; wherein a bleed port opens the diffuser to the bleed annulus and is configured to divert a bleed flow of the fluid from the main flow before discharge through the exit, the bleed port having, in a radial flow direction, a circumference around the compressor and a flow size that varies around the circumference; wherein variation in the flow size of the bleed port is configured to maintain a uniform flow distribution around the exit. a compressor with a housing defining a compressor chamber; an impeller disposed to rotate in the compressor chamber; a diffuser extending around the impeller and configured to collect fluid leaving the impeller; an exit through which a main flow of the fluid is discharged from the diffuser, the exit providing an opening that extends circumferentially around the compressor; a bleed annulus extending around the compressor and having a consistent cross-sectional area around the compressor; wherein a bleed port opens the diffuser to the bleed annulus and is configured to divert a bleed flow of the fluid from the main flow before discharge through the exit, the bleed port having, in a radial flow direction, a circumference around the compressor and a flow size that varies around the circumference; wherein variation in the flow size of the bleed port is configured to maintain a uniform flow distribution around the exit.
A rotor blade comprising: a platform; a root portion of said rotor blade connected to said platform; and a blade surface ending in a tip portion, said blade surface having a cross-sectional airfoil shape, wherein a thickness of said rotor blade varies as a function of rotor blade height in accordance with three different linear functions, wherein a maximum thickness of said rotor blade starting from about 2.21% of a blade height up to about 60% of rotor blade height, is described by a first one of said three linear functions as: Tmax = − 0.8646 * h + 1.1087, where h is blade height percentage; where h is blade height percentage; wherein said maximum thickness of said rotor blade in a first subsequent region, ranging from about 60% to about 80% of the rotor blade height is described by a second one of said three linear functions as: Tmax = − 1.0209 * h + 1.2058, wherein h is blade height percentage; and wherein h is blade height percentage; and wherein said maximum thickness of said rotor blade in a second subsequent region, ranging from 80% to 100% of the rotor blade height is described by a third one of said three linear functions as: Tmax = − 0.7618 * h + 0.9985, where h id blade height percentage. where h is blade height percentage. a platform; a root portion of said rotor blade connected to said platform; and a blade surface ending in a tip portion, said blade surface having a cross-sectional airfoil shape, wherein a thickness of said rotor blade varies as a function of rotor blade height in accordance with three different linear functions, wherein a maximum thickness of said rotor blade starting from about 2.21% of a blade height up to about 60% of rotor blade height, is described by a first one of said three linear functions as: Tmax = − 0.8646 * h + 1.1087, where h is blade height percentage; where h is blade height percentage; wherein said maximum thickness of said rotor blade in a first subsequent region, ranging from about 60% to about 80% of the rotor blade height is described by a second one of said three linear functions as: Tmax = − 1.0209 * h + 1.2058, wherein h is blade height percentage; and wherein h is blade height percentage; and wherein said maximum thickness of said rotor blade in a second subsequent region, ranging from 80% to 100% of the rotor blade height is described by a third one of said three linear functions as: Tmax = − 0.7618 * h + 0.9985, where h id blade height percentage. where h is blade height percentage.
Method of contactless charging of a battery (Batt) of an electric automotive vehicle by magnetic induction between an emitting resonant circuit comprising an emitting coil of a charging device and a receiving resonant circuit of the vehicle comprising a receiving coil, the vehicle being positioned above the emitting coil, so as to be able to ensure magnetic coupling between the emitting coil and the receiving coil, the method comprising steps consisting in: - commanding the electrical power supply together with the setpoints of an inverter across the terminals of which is linked the emitting coil according to a variable frequency, - measuring in an analog circuit the value of the current and of the voltage across the terminals of the emitting coil, and - computing the phase shift between the current and the voltage, characterized in that it furthermore comprises steps consisting in: - converting the phase shift into a numerical value, and - slaving by a digital processing the frequency of the switching setpoints dispatched to the inverter to the value of the phase shift. - commanding the electrical power supply together with the setpoints of an inverter across the terminals of which is linked the emitting coil according to a variable frequency, - measuring in an analog circuit the value of the current and of the voltage across the terminals of the emitting coil, and - computing the phase shift between the current and the voltage, - converting the phase shift into a numerical value, and - slaving by a digital processing the frequency of the switching setpoints dispatched to the inverter to the value of the phase shift.
A method for determining a slot format of a Fractional Dedicated Physical Control Channel, F-DPCH, characterized by comprising: receiving, by a Node B, configuration information about a common Enhanced Dedicated Channel, E-DCH, from a Radio Network Controller, RNC, over signaling; wherein the configuration information about the common E-DCH contains configuration information about the slot format of the F-DPCH; saving, by the Node B, the E-DCH configuration information, and ignoring the configuration slot format of the F-DPCH; detecting, by the Node B, whether a User Equipment, UE, in Cell Forward Access Channel, CELL_FACH, state or idle mode is using an Enhanced Dedicated Channel, E-DCH; using, by the Node B, slot format 0 of the F-DPCH as a slot format for transmitting information over the F-DPCH when detecting that the UE in CELL_FACH state or idle mode is using the E-DCH. receiving, by a Node B, configuration information about a common Enhanced Dedicated Channel, E-DCH, from a Radio Network Controller, RNC, over signaling; wherein the configuration information about the common E-DCH contains configuration information about the slot format of the F-DPCH; saving, by the Node B, the E-DCH configuration information, and ignoring the configuration slot format of the F-DPCH; detecting, by the Node B, whether a User Equipment, UE, in Cell Forward Access Channel, CELL_FACH, state or idle mode is using an Enhanced Dedicated Channel, E-DCH; using, by the Node B, slot format 0 of the F-DPCH as a slot format for transmitting information over the F-DPCH when detecting that the UE in CELL_FACH state or idle mode is using the E-DCH.
A computer-implemented method for occlusion handling in lightfield rendering, the method comprising: defining two enclosing spheres, wherein the inner sphere is still outside or equal to a bounding sphere of objects of interest; moving a camera origin on the outer sphere, for each camera perspective, generating lightfields for first and second depths such that the lightfield for the second depth is free of occlusion from a first object included in the first depth where the first depth separates the second depth from a camera having the camera perspective; determining a position of the camera relative to the first and second depths, wherein determining the position comprises determining the position to be between the first and second depths where the camera perspective is directed towards the second depth; identifying lightfield regions to be available for interpolation based on rays from within a camera view frustum intersecting the outer sphere; identifying visible lightfields based on the position of the camera relative to the depth of the lightfield layers; rendering an image using interpolation from the visible lightfields; and displaying the image on a display. defining two enclosing spheres, wherein the inner sphere is still outside or equal to a bounding sphere of objects of interest; moving a camera origin on the outer sphere, for each camera perspective, generating lightfields for first and second depths such that the lightfield for the second depth is free of occlusion from a first object included in the first depth where the first depth separates the second depth from a camera having the camera perspective; determining a position of the camera relative to the first and second depths, wherein determining the position comprises determining the position to be between the first and second depths where the camera perspective is directed towards the second depth; identifying lightfield regions to be available for interpolation based on rays from within a camera view frustum intersecting the outer sphere; identifying visible lightfields based on the position of the camera relative to the depth of the lightfield layers; rendering an image using interpolation from the visible lightfields; and displaying the image on a display.
An imaging lens, comprising: a first lens having a negative refracting power and having a meniscus shape in which a convex surface is directed toward an object side; a second lens having a negative refracting power and having a meniscus shape in which a convex surface is directed toward the object side; a third lens having a positive refracting power and having a meniscus shape in which a concave surface is directed toward the object side; an aperture stop; a fourth lens having a positive refracting power and having a bi-convex shape; a fifth lens having a negative refracting power and having a bi-concave shape; and a sixth lens having a positive refracting power and having a bi-convex shape, the first lens, the second lens, the third lens, the aperture stop, the fourth lens, the fifth lens, and the sixth lens (L1-L6) being arranged in order from the object side to an image surface side, the imaging lens being configured by six separate and independent lenses as a whole, the imaging lens having a total angle of view of 150 degrees or more, following conditional expression, conditional expression, and conditional expression being fulfilled, 44 < ν d1 Nd1 < 1.78 2.505 < f456/f < 3.5 where vd1: an Abbe's number in a d-line of the first lens (Ll) Ndl: a refractive index in the d-line of the first lens (Ll) f456: a synthetic focal length of the fourth lens, the fifth lens, and the six lens f: a focal length of an entire system. a first lens having a negative refracting power and having a meniscus shape in which a convex surface is directed toward an object side; a second lens having a negative refracting power and having a meniscus shape in which a convex surface is directed toward the object side; a third lens having a positive refracting power and having a meniscus shape in which a concave surface is directed toward the object side; an aperture stop; a fourth lens having a positive refracting power and having a bi-convex shape; a fifth lens having a negative refracting power and having a bi-concave shape; and a sixth lens having a positive refracting power and having a bi-convex shape, the first lens, the second lens, the third lens, the aperture stop, the fourth lens, the fifth lens, and the sixth lens (L1-L6) being arranged in order from the object side to an image surface side, the imaging lens being configured by six separate and independent lenses as a whole, the imaging lens having a total angle of view of 150 degrees or more, following conditional expression, conditional expression, and conditional expression being fulfilled, 44 < ν d1 Nd1 < 1.78 2.505 < f456/f < 3.5 where vd1: an Abbe's number in a d-line of the first lens (Ll) Ndl: a refractive index in the d-line of the first lens (Ll) f456: a synthetic focal length of the fourth lens, the fifth lens, and the six lens f: a focal length of an entire system. vd1: an Abbe's number in a d-line of the first lens (Ll) Ndl: a refractive index in the d-line of the first lens (Ll) f456: a synthetic focal length of the fourth lens, the fifth lens, and the six lens f: a focal length of an entire system.