mhurhangee/ep-ind-claims huggingface dataset:
A method for characterization of a subsurface formation, the method comprising: measuring in-air mass of a fluid-saturated sample of the subsurface formation, wherein the in-air mass comprises mass of the sample, mass of a fluid surrounding the sample, and mass of the fluid inside the sample, the in-air mass of the fluid-saturated sample, m s, given by the formula: m s = V m ρ m + V φ + V sur ρ l where ρ m is a density of the matrix of the subsurface formation, ρ l is a density of the fluid inside and surrounding the sample, V m is a volume of the matrix, V φ is a volume of the fluid inside the sample, and V sur is a volume of the fluid surrounding the sample; determining volume of the fluid inside the sample, V φ, and volume of the fluid surrounding the sample, V sur, using nuclear magnetic resonance; placing the sample in a predetermined volume of a weighing fluid; measuring the mass of the fluid-saturated sample in the weighing fluid, the mass of the sample in the weighing fluid, m f, given by the formula: m f = V m ρ m + V φ ρ l − V c ρ f where ρ f is the density of the weighing fluid; and determining a volume of the sample, V c, using the formula: V c = m s − m f − V sur ρ l / ρ f. measuring in-air mass of a fluid-saturated sample of the subsurface formation, wherein the in-air mass comprises mass of the sample, mass of a fluid surrounding the sample, and mass of the fluid inside the sample, the in-air mass of the fluid-saturated sample, m s, given by the formula: m s = V m ρ m + V φ + V sur ρ l where ρ m is a density of the matrix of the subsurface formation, ρ l is a density of the fluid inside and surrounding the sample, V m is a volume of the matrix, V φ is a volume of the fluid inside the sample, and V sur is a volume of the fluid surrounding the sample; determining volume of the fluid inside the sample, V φ, and volume of the fluid surrounding the sample, V sur, using nuclear magnetic resonance; placing the sample in a predetermined volume of a weighing fluid; measuring the mass of the fluid-saturated sample in the weighing fluid, the mass of the sample in the weighing fluid, m f, given by the formula: m f = V m ρ m + V φ ρ l − V c ρ f where ρ f is the density of the weighing fluid; and determining a volume of the sample, V c, using the formula: V c = m s − m f − V sur ρ l / ρ f.
A polymer comprising units having the structure: wherein x is 2 or 3, wherein L is (CH 2) y, where y is an integer from 1 to 10, or wherein L is CH(CH 3)CH 2 S(CH 2) z, where z is an integer from 1 to 5; wherein is absent or is a polymerised moiety consisting of 2 to 200 units having the structure: wherein R is a hydrocarbyl group, or a hydrocarbyl group containing one or more heteroatoms, wherein R may be linear, branched or cyclic, saturated or unsaturated, and wherein R has from 1 to 30 carbon atoms; wherein either consists of identical units of structure, or wherein consists of more than one different units of structure, differing in group R; wherein X is a halogen, a hydroxy group, an azide group, NH 2, a thioether group or an ether group; and wherein the polymer has a number average molecular weight of 500 to 500,000 g/mol, as measured by Gel Permeation Chromatography with reference to linear narrow poly(methylmethacrylate) standards in the range of 550 to 600,000 g/mol. wherein x is 2 or 3, wherein L is (CH 2) y, where y is an integer from 1 to 10, or wherein L is CH(CH 3)CH 2 S(CH 2) z, where z is an integer from 1 to 5; wherein is absent or is a polymerised moiety consisting of 2 to 200 units having the structure: wherein R is a hydrocarbyl group, or a hydrocarbyl group containing one or more heteroatoms, wherein R may be linear, branched or cyclic, saturated or unsaturated, and wherein R has from 1 to 30 carbon atoms; wherein either consists of identical units of structure, or wherein consists of more than one different units of structure, differing in group R; wherein X is a halogen, a hydroxy group, an azide group, NH 2, a thioether group or an ether group; and wherein the polymer has a number average molecular weight of 500 to 500,000 g/mol, as measured by Gel Permeation Chromatography with reference to linear narrow poly(methylmethacrylate) standards in the range of 550 to 600,000 g/mol.
A method of wireless communication by a user equipment, UE (104; 350; 464; 466; 468; 470; 506), comprising: receiving one or more device-to-device, D2D, signals respectively from one or more proximate UEs (508; 510); measuring signal strength of the one or more D2D signals based, at least in part, on signal strength of a data portion included in a traffic part of the one or more D2D signals; and wherein the signal strength of the data portion is based on reference signal received quality, RSRQ, of one or more resource elements used for receiving the data portion of the one or more D2D signals. receiving one or more device-to-device, D2D, signals respectively from one or more proximate UEs (508; 510); measuring signal strength of the one or more D2D signals based, at least in part, on signal strength of a data portion included in a traffic part of the one or more D2D signals; and wherein the signal strength of the data portion is based on reference signal received quality, RSRQ, of one or more resource elements used for receiving the data portion of the one or more D2D signals.
An apparatus for culturing cells using a culture medium in a culture vessel, the apparatus comprising: a pump connected to a pipet held by a first holder; a first shifter configured to shift the first holder; a second holder configured to hold the culture vessel; a second shifter configured to grip and shift the culture vessel; a controller programmed to, when the pipet draws a liquid in the culture vessel or discharges a liquid into the culture vessel, control the second shifter to translationally shift a lid of the culture vessel in a horizontal direction to open the lid; and the controller is programmed to, when dissociation solution is discharged into the culture vessel twice, control the second holder to tilt the culture vessel in a first direction during a first discharge and in a second direction opposite to the first direction during a second discharge, the dissociation solution being discharged to an inner wall surface of culture vessel on the vertical upper side when the pipet starts to discharge. a pump connected to a pipet held by a first holder; a first shifter configured to shift the first holder; a second holder configured to hold the culture vessel; a second shifter configured to grip and shift the culture vessel; a controller programmed to, when the pipet draws a liquid in the culture vessel or discharges a liquid into the culture vessel, control the second shifter to translationally shift a lid of the culture vessel in a horizontal direction to open the lid; and the controller is programmed to, when dissociation solution is discharged into the culture vessel twice, control the second holder to tilt the culture vessel in a first direction during a first discharge and in a second direction opposite to the first direction during a second discharge, the dissociation solution being discharged to an inner wall surface of culture vessel on the vertical upper side when the pipet starts to discharge.
A rotor assembly of a turbomachine comprising: a first rotor including first tabs; a second rotor arranged coaxially with the first rotor and including second tabs that are interlocked with the first tabs; and a retainer locking the first tabs and the second tabs together, characterised in that: the first rotor and the second rotor each include a number of airfoils, and the first rotor and the second rotor each include a number of, respectively, the first tabs and the second tabs such that N is a positive integer multiple of T. a first rotor including first tabs; a second rotor arranged coaxially with the first rotor and including second tabs that are interlocked with the first tabs; and a retainer locking the first tabs and the second tabs together, characterised in that: the first rotor and the second rotor each include a number of airfoils, and the first rotor and the second rotor each include a number of, respectively, the first tabs and the second tabs such that N is a positive integer multiple of T.
A safety catheter assembly comprising: a catheter hub comprising a housing comprising an exterior surface and an interior surface defining an interior cavity; a catheter tube attached to the catheter hub and extending distally of the catheter hub; a needle hub (18, 90) comprising a housing comprising an exterior surface and an interior surface defining an interior cavity; a needle having a needle tip attached to the needle hub and projecting distally of the needle hub and into the catheter tube; a valve comprising a top surface, a skirt depending therefrom, and an opening on the top surface having the needle projecting therethrough; a valve opener (48, 132, 156, 180, 193) for opening the valve and positioned in the interior cavity of the catheter hub proximal of the valve; wherein the valve opener (48, 132, 156, 180, 193) comprises two proximally extending legs (60, 195) having a gap there between, the valve opener being sized and shaped to be pushed distally towards the valve to transfer a force imparted by an IV-set Luer connector to the valve; characterized in that a third housing for accommodating a tip protector (50, 202) is incorporated. a catheter hub comprising a housing comprising an exterior surface and an interior surface defining an interior cavity; a catheter tube attached to the catheter hub and extending distally of the catheter hub; a needle hub (18, 90) comprising a housing comprising an exterior surface and an interior surface defining an interior cavity; a needle having a needle tip attached to the needle hub and projecting distally of the needle hub and into the catheter tube; a valve comprising a top surface, a skirt depending therefrom, and an opening on the top surface having the needle projecting therethrough; a valve opener (48, 132, 156, 180, 193) for opening the valve and positioned in the interior cavity of the catheter hub proximal of the valve; wherein the valve opener (48, 132, 156, 180, 193) comprises two proximally extending legs (60, 195) having a gap there between, the valve opener being sized and shaped to be pushed distally towards the valve to transfer a force imparted by an IV-set Luer connector to the valve; characterized in that a third housing for accommodating a tip protector (50, 202) is incorporated.
A method of generating a driving support product for a racing driver, comprising: - a learning phase comprising: - generating a data set comprising three dimensional geometric data representing a learning track, by scanning a ground area including the learning track and surroundings thereof; - estimating track properties by analyzing the data set, and generating corresponding track property data; and - generating a template to be first generated for pace note generation, including receiving at least one set of manually generated pace notes of the learning track, digitizing the manually generated pace notes, and matching the digitized pace notes of the learning track with the track property data of the learning track; and - a driving support product generation phase comprising: - generating a data set comprising three dimensional geometric data representing a track, by scanning a ground area including the track and surroundings thereof; - estimating track properties by analyzing the data set, and generating corresponding track property data; and - generating a driving support product comprising a set of pace notes for the track, by applying the template to the track property data. - a learning phase comprising: - generating a data set comprising three dimensional geometric data representing a learning track, by scanning a ground area including the learning track and surroundings thereof; - estimating track properties by analyzing the data set, and generating corresponding track property data; and - generating a template to be first generated for pace note generation, including receiving at least one set of manually generated pace notes of the learning track, digitizing the manually generated pace notes, and matching the digitized pace notes of the learning track with the track property data of the learning track; and - a driving support product generation phase comprising: - generating a data set comprising three dimensional geometric data representing a track, by scanning a ground area including the track and surroundings thereof; - estimating track properties by analyzing the data set, and generating corresponding track property data; and - generating a driving support product comprising a set of pace notes for the track, by applying the template to the track property data.
A non-transitory computer readable storage medium with instructions executed by a processor to: receive an original collection of symbols; apply a single use coding function to the original collection of symbols to form a new collection of symbols, wherein single use means use for a single instance of a file, such that a single use coding function must be generated with each encoding request; form encryption keys associated with a user; encrypt the new collection of symbols to form a recoded encrypted symbol file stored at a network accessible memory location; form a distributed ledger entry with a data control signature formed using the single use coding function encrypted with a private key; and write the distributed ledger entry to a distributed ledger. receive an original collection of symbols; apply a single use coding function to the original collection of symbols to form a new collection of symbols, wherein single use means use for a single instance of a file, such that a single use coding function must be generated with each encoding request; form encryption keys associated with a user; encrypt the new collection of symbols to form a recoded encrypted symbol file stored at a network accessible memory location; form a distributed ledger entry with a data control signature formed using the single use coding function encrypted with a private key; and write the distributed ledger entry to a distributed ledger.
A method comprising: specifying a list of one or more locations at which a user equipment 'UE' is to selectively initiate reporting its location; sending the list to the UE; receiving a notification from the UE indicating that the UE is within a location of the one or more locations; in response to receiving the notification from the UE, requesting a location report from the UE; receiving the location report from the UE; provisioning the UE with one or more access network selection policies based on the location report received from the UE; and applying at least one access network selection policy at the UE based on the location report received from the UE. specifying a list of one or more locations at which a user equipment 'UE' is to selectively initiate reporting its location; sending the list to the UE; receiving a notification from the UE indicating that the UE is within a location of the one or more locations; in response to receiving the notification from the UE, requesting a location report from the UE; receiving the location report from the UE; provisioning the UE with one or more access network selection policies based on the location report received from the UE; and applying at least one access network selection policy at the UE based on the location report received from the UE.
A gravity die-casting apparatus with a mold comprising a shell forming machine comprising a footing with which at least one mold is to be associated and means for feeding the molten mass at a casting intake region of said mold, said mold having at least one mold portion (12a, 12b,...) that can move on a working surface, said mold being movable with respect to said footing about at least one substantially horizontal oscillation axis, said mold can rotate being rotatable about said oscillation axis through an angular stroke of at least 180°, said footing supporting a shelf-like body for supporting said mold, said shelf-like body being supported by said footing so that it can rotate about said oscillation axis, the oscillation of said mold about the oscillation axis being obtained by way of first motor means adapted to move a center bearing body that is supported rotatably by said footing and, in turn, supporting said shelf-like body, said means for feeding the molten mass at said intake region comprising at least one hand ladle into which the molten mass is to be poured and means for transferring the molten mass from said hand ladle toward said intake region, said hand ladle being supported by an elongated element which in turn is supported by the center bearing body, said elongated element being rotatable on command with respect to the center bearing body about a first axis that lies on a plane that is tangent to the oscillation axis, and said hand ladle being rotatable about a positioning axis that is arranged substantially at right angles to the first axis and/or to the oscillation axis.
Transmission drive unit having an electric motor which drives a transmission, and having a load torque lock which locks the torques which are applied by an output-side clutch element, wherein the load torque lock comprises a wrap spring which is arranged on/in a rotationally fixed shaft (50, 52), and the wrap spring engages in a transmission gear wheel which is driven on the drive side by a rotor shaft of the electric motor, characterized in that the ends of the wrap spring are shaped in the circumferential direction in such a way that they form sprung damping elements which absorb the energy when the clutch element locks, which is caused by a sudden stop of a part which is to be adjusted by means of the transmission drive unit.
An implantable subcutaneous electrode assembly for stimulation of ophthalmic nerves of a patient comprising: an electrode body having a medial end, a lateral end opposing the medial end, a stimulating surface, and a sensing surface opposing the stimulating surface, wherein the electrode body is configured such that the sensing surface faces the frontal bone portion of the forehead of the patient and the stimulating surface faces the ophthalmic nerves when the electrode assembly is implanted; wherein the electrode assembly further comprises a pair of electrical contacts disposed on or integrally formed on the stimulating surface of the electrode body such that one of the electrical contacts in the pair is located medially towards the medial end and a remaining one of the electrical contacts in the pair is located laterally towards the lateral end, the pair of electrical contacts being spaced apart such that the pair of electrical contacts are configured to excite an orthogonally-directed current across a supraorbital nerve and across an adjacent supratrochlear nerve; one or more sensing contacts disposed on or integrally formed on the sensing surface of the electrode body; an insulating region defined between the electrical contacts; and an aperture defined in the electrode body, wherein the aperture is configured to receive an anchoring device. an electrode body having a medial end, a lateral end opposing the medial end, a stimulating surface, and a sensing surface opposing the stimulating surface, wherein the electrode body is configured such that the sensing surface faces the frontal bone portion of the forehead of the patient and the stimulating surface faces the ophthalmic nerves when the electrode assembly is implanted; wherein the electrode assembly further comprises a pair of electrical contacts disposed on or integrally formed on the stimulating surface of the electrode body such that one of the electrical contacts in the pair is located medially towards the medial end and a remaining one of the electrical contacts in the pair is located laterally towards the lateral end, the pair of electrical contacts being spaced apart such that the pair of electrical contacts are configured to excite an orthogonally-directed current across a supraorbital nerve and across an adjacent supratrochlear nerve; one or more sensing contacts disposed on or integrally formed on the sensing surface of the electrode body; an insulating region defined between the electrical contacts; and an aperture defined in the electrode body, wherein the aperture is configured to receive an anchoring device.
An optical connector for a medical device comprising: an optical transmission line (3A1) configured to transmit an optical signal corresponding to image data obtained by the medical device; an outer wall, into which the optical transmission line is inserted, via which an optical communication is accomplished with a mating connector by transmitting the optical signal; and a translucent cover material, which airtightly seals the outer wall, wherein the translucent cover material is arranged on an optical path of the optical communication, the translucent cover material is flat and characterised in that the translucent cover material is tilted with respect to an imaginary plane orthogonal to a central axis (AxA) of the optical transmission line; and an anti-reflective coating film is disposed on an inside surface of the translucent cover material. an optical transmission line (3A1) configured to transmit an optical signal corresponding to image data obtained by the medical device; an outer wall, into which the optical transmission line is inserted, via which an optical communication is accomplished with a mating connector by transmitting the optical signal; and a translucent cover material, which airtightly seals the outer wall, wherein the translucent cover material is arranged on an optical path of the optical communication, the translucent cover material is flat and characterised in that the translucent cover material is tilted with respect to an imaginary plane orthogonal to a central axis (AxA) of the optical transmission line; and an anti-reflective coating film is disposed on an inside surface of the translucent cover material.
A wireless communication device (10; 100; 300) configured for operation in a wireless communication system, wherein the wireless communication device (10; 100; 300) is configured with an uplink, UL, carrier of a first radio access technology, RAT, wherein the wireless communication device (10; 100; 300) is configured with a downlink, DL, carrier of the first RAT, wherein the wireless communication device (10; 100; 300) is configured to transmit the UL carrier of the first RAT in an uplink frequency channel overlapping with an uplink frequency channel of a second RAT, wherein the wireless communication device (10; 100; 300) is configured to receive and demodulate and/or decode the DL carrier of the first RAT in a frequency channel of the first RAT that is higher than a downlink frequency channel of the second RAT.