mhurhangee/ep-ind-claims huggingface dataset:
A vehicle having a hub carrier (100; 209) coupled to a body of the vehicle by a camber mechanism, the vehicle having first and second mounting points by means of which the camber mechanism is coupled to the body of the vehicle, wherein: (i) the camber mechanism comprises: - a first wing (103; 202) attached to the first mounting point by a first rotationally free joint (120; 203); - a second wing (104; 205) attached to the second mounting point by a second rotationally free joint (109; 206) and attached to the first wing by an inter-wing joint (114; 207) that permits relative motion of the first and second wings; and - a tie link attached by a third rotationally free joint (110; 208) to the first wing and running to the vehicle body; (ii) the hub carrier is attached to the first wing by a first hub carrier joint (122; 210) permitting relative rotation of the first wing and the hub carrier about only a single axis, which axis substantially intersects a camber axis; (iii) the hub carrier is attached to the second wing by a second hub carrier joint (113; 211) permitting relative rotation of the second wing and the hub carrier about only a single axis, which axis substantially intersects the camber axis; and (iv) the inter-wing joint and the first and second hub carrier joints provide freedom of motion such that the hub carrier can camber relative to the vehicle body about the camber axis. (i) the camber mechanism comprises: - a first wing (103; 202) attached to the first mounting point by a first rotationally free joint (120; 203); - a second wing (104; 205) attached to the second mounting point by a second rotationally free joint (109; 206) and attached to the first wing by an inter-wing joint (114; 207) that permits relative motion of the first and second wings; and - a tie link attached by a third rotationally free joint (110; 208) to the first wing and running to the vehicle body; - a first wing (103; 202) attached to the first mounting point by a first rotationally free joint (120; 203); - a second wing (104; 205) attached to the second mounting point by a second rotationally free joint (109; 206) and attached to the first wing by an inter-wing joint (114; 207) that permits relative motion of the first and second wings; and - a tie link attached by a third rotationally free joint (110; 208) to the first wing and running to the vehicle body; (ii) the hub carrier is attached to the first wing by a first hub carrier joint (122; 210) permitting relative rotation of the first wing and the hub carrier about only a single axis, which axis substantially intersects a camber axis; (iii) the hub carrier is attached to the second wing by a second hub carrier joint (113; 211) permitting relative rotation of the second wing and the hub carrier about only a single axis, which axis substantially intersects the camber axis; and (iv) the inter-wing joint and the first and second hub carrier joints provide freedom of motion such that the hub carrier can camber relative to the vehicle body about the camber axis.
Liquid toner digitally printable media, comprising: a paper substrate; and a toner receiving layer established on at least one surface of the paper substrate, the toner receiving layer including: pigments; binders; and at least one of cationic polymers and metallic salts; wherein the pigments are from 60 to 95% of total dry weight of the toner receiving layer; and wherein the pigments include a major pigment, the major pigment being at least 60 weight percent of total pigment dry weight, the major pigment including a rod-shaped pigment with a median equivalent spherical diameter, obtained by measuring the diameter of a sphere of equivalent volume, of from 0.1 microns to 3 microns and with a ratio of rod length to rod diameter ranging from 2 to 20. a paper substrate; and a toner receiving layer established on at least one surface of the paper substrate, the toner receiving layer including: pigments; binders; and at least one of cationic polymers and metallic salts; wherein the pigments are from 60 to 95% of total dry weight of the toner receiving layer; and wherein the pigments include a major pigment, the major pigment being at least 60 weight percent of total pigment dry weight, the major pigment including a rod-shaped pigment with a median equivalent spherical diameter, obtained by measuring the diameter of a sphere of equivalent volume, of from 0.1 microns to 3 microns and with a ratio of rod length to rod diameter ranging from 2 to 20. pigments; binders; and at least one of cationic polymers and metallic salts; wherein the pigments are from 60 to 95% of total dry weight of the toner receiving layer; and wherein the pigments include a major pigment, the major pigment being at least 60 weight percent of total pigment dry weight, the major pigment including a rod-shaped pigment with a median equivalent spherical diameter, obtained by measuring the diameter of a sphere of equivalent volume, of from 0.1 microns to 3 microns and with a ratio of rod length to rod diameter ranging from 2 to 20.
A method for producing a 4,4'-diformyldiphenylalkane represented by the following formula, comprising formylating a diphenylalkane represented by the following formula with carbon monoxide in the presence of hydrogen fluoride and boron trifluoride, a reaction temperature of the formylation being from -50 to 5°C, from 5 to 30 mol of hydrogen fluoride being used per 1 mol of the diphenylalkane, and from 1.5 to 5 mol of boron trifluoride being used per 1 mol of the diphenylalkane: wherein R represents an alkanediyl group having from 1 to 6 carbon atoms, wherein R represents an alkanediyl group having from 1 to 6 carbon atoms.
A magnetometer system for medical use, comprising: one or more induction coils for detecting a time varying magnetic field, each induction coil having a maximum outer diameter of 10 cm or less, and a configuration such that the ratio of the coil's length to its outer diameter is in the range 0.9 to 3, and the ratio of the coil's inner diameter to its outer diameter is in the range 0.6 to 1, wherein each induction coil comprises a magnetic core; and a detection circuit coupled to each induction coil and configured to convert a current or voltage generated in the coil by a time varying magnetic field to an output signal for use to analyse the time varying magnetic field. one or more induction coils for detecting a time varying magnetic field, each induction coil having a maximum outer diameter of 10 cm or less, and a configuration such that the ratio of the coil's length to its outer diameter is in the range 0.9 to 3, and the ratio of the coil's inner diameter to its outer diameter is in the range 0.6 to 1, wherein each induction coil comprises a magnetic core; and a detection circuit coupled to each induction coil and configured to convert a current or voltage generated in the coil by a time varying magnetic field to an output signal for use to analyse the time varying magnetic field.
Method for operating a consumption meter system, in which the consumption of a supply medium by a consumer is determined using a consumption meter (1, 10), the consumption is transmitted in the form of data between the consumption meter (1, 10) and a first receiver, wherein the first receiver is assigned to a higher-level supplier, the data are transmitted between the consumption meter (1, 10) and the first receiver via a first data channel, and the data are encrypted at the meter for transmission via the first data channel using a first key, wherein there is provision for a second data channel for transmitting the data between the consumption meter (1, 10) and a second receiver, characterized in that the second receiver comprises a consumer application, wherein the data of the second data channel are individually configurable by the consumer and the data are encrypted at the meter for transmission via the second data channel by means of a second key.
A target sensor comprising: a sensor probe having a resonance frequency that changes as the separation of the sensor probe and a target changes; an oscillator arranged to apply a radio frequency signal to the sensor probe, the oscillator having: control circuitry configured to regulate the frequency of the RF signal applied to the sensor probe to a regulated frequency which is, both in the presence and absence of interaction between the sensor probe and a target, simultaneously: (a) more than ω 0 / Q below the resonance frequency ω 0 of the sensor probe (Q being the quality factor of the sensor probe), and (b) not below the frequency ω L = R* / L where R * is the sum of the source impedance from which the sensor probe is driven and its resistance, and L its inductance; and a detector arranged to detect an electrical characteristic of the oscillator that varies with the impedance of the sensor probe indicating an interaction of the sensor probe with the target. a sensor probe having a resonance frequency that changes as the separation of the sensor probe and a target changes; an oscillator arranged to apply a radio frequency signal to the sensor probe, the oscillator having: control circuitry configured to regulate the frequency of the RF signal applied to the sensor probe to a regulated frequency which is, both in the presence and absence of interaction between the sensor probe and a target, simultaneously: (a) more than ω 0 / Q below the resonance frequency ω 0 of the sensor probe (Q being the quality factor of the sensor probe), and (b) not below the frequency ω L = R* / L where R * is the sum of the source impedance from which the sensor probe is driven and its resistance, and L its inductance; and a detector arranged to detect an electrical characteristic of the oscillator that varies with the impedance of the sensor probe indicating an interaction of the sensor probe with the target. an oscillator arranged to apply a radio frequency signal to the sensor probe, the oscillator having: control circuitry configured to regulate the frequency of the RF signal applied to the sensor probe to a regulated frequency which is, both in the presence and absence of interaction between the sensor probe and a target, simultaneously: (a) more than ω 0 / Q below the resonance frequency ω 0 of the sensor probe (Q being the quality factor of the sensor probe), and (b) not below the frequency ω L = R* / L where R * is the sum of the source impedance from which the sensor probe is driven and its resistance, and L its inductance; and a detector arranged to detect an electrical characteristic of the oscillator that varies with the impedance of the sensor probe indicating an interaction of the sensor probe with the target.
A method for making a self-sealing access device, the access device being provided in a tubular or "C" shaped configuration with a longitudinal axis extending between first and second ends (332a, 332b), the method comprising: creating a plurality of elastic elements including a zigzag pattern; elastically lengthening the elastic elements from an original relaxed configuration to a pre-stressed state; embedding the pre-stressed elastic elements in a flexible base material or fixing the pre-stressed elastic elements to a flexible base material to form the access device, wherein the zigzag pattern of the elastic elements extends transversely while the elastic elements extend generally axially along a length of the access device between the first and second ends; and subsequently releasing the elastic elements whereupon the elastic elements resiliently return to their original configuration. creating a plurality of elastic elements including a zigzag pattern; elastically lengthening the elastic elements from an original relaxed configuration to a pre-stressed state; embedding the pre-stressed elastic elements in a flexible base material or fixing the pre-stressed elastic elements to a flexible base material to form the access device, wherein the zigzag pattern of the elastic elements extends transversely while the elastic elements extend generally axially along a length of the access device between the first and second ends; and subsequently releasing the elastic elements whereupon the elastic elements resiliently return to their original configuration.
A snow blower implement (100; 100'; 100"; 200) configured to be coupled to an implement interface of a power machine, the snow blower implement comprising: a power machine interface (110; 110'; 110"; 210) having a machine mount (112; 112'; 112"; 212) configured to engage the implement interface of the power machine; and a rotary snow blowing tool (120; 120'; 120"; 220) coupled to the power machine interface, the rotary snow blowing tool having a frame (122; 122'; 122"; 222) forming an auger housing, wherein the auger housing comprises: first and second spaced apart side plates (240; 242) on outer sides of the auger housing; at least one laterally extending section (244; 246; 248) between the first and second spaced apart side plates; characterised in that the auger housing further comprises an aperture (262; 264) formed in the at least one laterally extending section to provide an operator of the power machine with visibility, through the aperture, of an implement workspace. a power machine interface (110; 110'; 110"; 210) having a machine mount (112; 112'; 112"; 212) configured to engage the implement interface of the power machine; and a rotary snow blowing tool (120; 120'; 120"; 220) coupled to the power machine interface, the rotary snow blowing tool having a frame (122; 122'; 122"; 222) forming an auger housing, wherein the auger housing comprises: first and second spaced apart side plates (240; 242) on outer sides of the auger housing; at least one laterally extending section (244; 246; 248) between the first and second spaced apart side plates; characterised in that the auger housing further comprises an aperture (262; 264) formed in the at least one laterally extending section to provide an operator of the power machine with visibility, through the aperture, of an implement workspace. first and second spaced apart side plates (240; 242) on outer sides of the auger housing; at least one laterally extending section (244; 246; 248) between the first and second spaced apart side plates; characterised in that the auger housing further comprises an aperture (262; 264) formed in the at least one laterally extending section to provide an operator of the power machine with visibility, through the aperture, of an implement workspace.
A vertical roller mill (1B, 1C, 1D), comprising: a housing; a chute that supplies materials to be grinded to a center portion of the housing; a grinder that is provided below the chute and grinds the materials to be grinded; an exhaust pipe that is provided above the grinder; a transport mechanism that forms an air flow for transporting, to the exhaust pipe, grinded materials obtained by grinding the materials to be grinded by the grinder; and a flow-constricting flow path that is provided between the grinder and the exhaust pipe and narrows a flow path area for the air flow, wherein the flow-constricting flow path is formed between a first flow-constricting ring provided in the center portion of the housing and a second flow-constricting ring provided to protrude from the housing toward the center portion of the housing, characterized by further comprising: an adjusting mechanism configured to adjust a dimension of a gap between the first flow-constricting ring and the second flow-constricting ring. a housing; a chute that supplies materials to be grinded to a center portion of the housing; a grinder that is provided below the chute and grinds the materials to be grinded; an exhaust pipe that is provided above the grinder; a transport mechanism that forms an air flow for transporting, to the exhaust pipe, grinded materials obtained by grinding the materials to be grinded by the grinder; and a flow-constricting flow path that is provided between the grinder and the exhaust pipe and narrows a flow path area for the air flow, wherein the flow-constricting flow path is formed between a first flow-constricting ring provided in the center portion of the housing and a second flow-constricting ring provided to protrude from the housing toward the center portion of the housing, characterized by further comprising: an adjusting mechanism configured to adjust a dimension of a gap between the first flow-constricting ring and the second flow-constricting ring.
A base for use in promoting remineralization of a dental surface or subsurface wherein the base contacts the dental surface or subsurface after a mineralizing agent which is a phosphopeptide stabilized amorphous calcium phosphate and/or amorphous calcium fluoride phosphate (ACFP).
A method for producing a vascular implant, comprising the following steps: • obtaining vessel parameters; • creating a computer-aided model of a vascular implant based on the obtained vessel parameters, wherein the vascular implant comprises one or more modules, each comprising at least one tubular casing body; • selecting one or more structural elements of a respective module from the group consisting of: one or more diameter changes along at least one tubular casing body, one or more bifurcations, one or more branches, one or more recesses (40, 50), one or more local reinforcements and one or more iliac vessel grafts; • determining parameters relating to the one or more selected structural elements; • integrating the structural elements into the computer-aided model according to the determined parameters; • producing the vascular implant on the basis of the created computer-aided model, characterized in that the vascular implant is textile and/or textile-based, in particular a woven fabric and/or a knitted fabric, and wherein the vascular implant is produced using the jacquard technique. • obtaining vessel parameters; • creating a computer-aided model of a vascular implant based on the obtained vessel parameters, wherein the vascular implant comprises one or more modules, each comprising at least one tubular casing body; • selecting one or more structural elements of a respective module from the group consisting of: one or more diameter changes along at least one tubular casing body, one or more bifurcations, one or more branches, one or more recesses (40, 50), one or more local reinforcements and one or more iliac vessel grafts; • determining parameters relating to the one or more selected structural elements; • integrating the structural elements into the computer-aided model according to the determined parameters; • producing the vascular implant on the basis of the created computer-aided model, the vascular implant is textile and/or textile-based, in particular a woven fabric and/or a knitted fabric, and wherein the vascular implant is produced using the jacquard technique.
A method, comprising: a. using additive manufacturing to produce a metal shaped-preform, wherein the metal shaped-preform comprises a plurality of undulations on a surface of the metal shaped preform indicative of an additive manufacturing build; b. smoothing the plurality of undulations on the surface of the metal shaped-preform via an energy source sufficient to provide a workable preform configured for a further working operation, wherein smoothing comprises at least one of: electron beam smoothing, flash lamp melting, laser melting, arc melting, laser ablation, and combinations thereof, and wherein the smoothing comprises heating at least a portion of a single bead depth, wherein a bead is a continuous deposit of fused metal; and c. working the metal shaped-preform to a final worked product. a. using additive manufacturing to produce a metal shaped-preform, wherein the metal shaped-preform comprises a plurality of undulations on a surface of the metal shaped preform indicative of an additive manufacturing build; b. smoothing the plurality of undulations on the surface of the metal shaped-preform via an energy source sufficient to provide a workable preform configured for a further working operation, wherein smoothing comprises at least one of: electron beam smoothing, flash lamp melting, laser melting, arc melting, laser ablation, and combinations thereof, and wherein the smoothing comprises heating at least a portion of a single bead depth, wherein a bead is a continuous deposit of fused metal; and c. working the metal shaped-preform to a final worked product.
A method for performing a service request procedure, the method performed by a user equipment, UE, and comprising: receiving, by an access stratum, AS, layer of the UE, skipping information on an access class barring, ACB; receiving, by a non-access stratum, NAS, layer of the UE and from an upper layer of the UE, a start indication indicating a multimedia telephony, MMTEL, service or a short message service, SMS, has started; wherein if the NAS layer receives, from the AS layer, information indicating that an access was barred for an originating call and if the NAS layer receives the start indication, the NAS layer starts a service request procedure and then sets and delivers to the AS layer, a call type associated with a radio resource control, RRC, establishment for the service request procedure; and performing, by the AS layer, the RRC establishment based on the call type if the skipping information on the ACB indicates a skip for the MMTEL service or the SMS. receiving, by an access stratum, AS, layer of the UE, skipping information on an access class barring, ACB; receiving, by a non-access stratum, NAS, layer of the UE and from an upper layer of the UE, a start indication indicating a multimedia telephony, MMTEL, service or a short message service, SMS, has started; wherein if the NAS layer receives, from the AS layer, information indicating that an access was barred for an originating call and if the NAS layer receives the start indication, the NAS layer starts a service request procedure and then sets and delivers to the AS layer, a call type associated with a radio resource control, RRC, establishment for the service request procedure; and performing, by the AS layer, the RRC establishment based on the call type if the skipping information on the ACB indicates a skip for the MMTEL service or the SMS.
A method for manufacturing a flexible battery, comprising the steps of: preparing an electrode current collector having a current collecting portion provided with at least one through-hole; carrying out electrospinning of electrode slurry comprising an electrode active material, a binder, a conductive material and a solvent on at least one surface of an edge of the current collecting portion and over the through-hole to form an electrode active material layer on at least one surface of the electrode current collector; and forming a battery provided with the electrode current collector having the electrode active material layer formed thereon as an electrode. preparing an electrode current collector having a current collecting portion provided with at least one through-hole; carrying out electrospinning of electrode slurry comprising an electrode active material, a binder, a conductive material and a solvent on at least one surface of an edge of the current collecting portion and over the through-hole to form an electrode active material layer on at least one surface of the electrode current collector; and forming a battery provided with the electrode current collector having the electrode active material layer formed thereon as an electrode.