mhurhangee/ep-ind-claims huggingface dataset:
An electric traction motorcycle, comprising: • a front portion comprising one or more front wheels and a handlebar; • a rear portion comprising a saddle, a shell body arranged below said saddle, and a rear wheel arranged below said shell body; • an intermediate portion extending as a connection between said front portion and said rear portion; • an electric drive unit connected to said rear wheel; • a power supply unit supplying said electric drive unit; and • a helmet carrying compartment, placed inside the shell body below the saddle, which is accessible by shifting said saddle in an open position, wherein the shifting of the saddle in an open position uncovers a service surface therebelow a power lead cable compartment is arranged which includes a power lead cable which, when it is in retracted configuration, allows the complete closure of the saddle and it is wholly included in its compartment; said compartment has a shape so as to adapt to the space available at a rear wall of the helmet carrying compartment and of the rear wall of the shell body, the power lead cable having a connecting socket and a respective seat wherein it is placed in a resting position, and characterized in that in this seat a sensor is provided which detects the positioning of the connecting socket and which provides, to a control unit of the motorcycle, a signal allowing to start the motorcycle. • a front portion comprising one or more front wheels and a handlebar; • a rear portion comprising a saddle, a shell body arranged below said saddle, and a rear wheel arranged below said shell body; • an intermediate portion extending as a connection between said front portion and said rear portion; • an electric drive unit connected to said rear wheel; • a power supply unit supplying said electric drive unit; and • a helmet carrying compartment, placed inside the shell body below the saddle, which is accessible by shifting said saddle in an open position, wherein the shifting of the saddle in an open position uncovers a service surface therebelow a power lead cable compartment is arranged which includes a power lead cable which, when it is in retracted configuration, allows the complete closure of the saddle and it is wholly included in its compartment; said compartment has a shape so as to adapt to the space available at a rear wall of the helmet carrying compartment and of the rear wall of the shell body, the power lead cable having a connecting socket and a respective seat wherein it is placed in a resting position, and characterized in that in this seat a sensor is provided which detects the positioning of the connecting socket and which provides, to a control unit of the motorcycle, a signal allowing to start the motorcycle.
Composition containing a photostabilized combination of Butyl Methoxydibenzoyl methane (BMDBM), Bis-Ethylhexyloxyphenol Methoxyphenyl Triazine (BEMT), and Methylene Bis-Benzotriazolyl Tetramethylbutylphenol (MBBT) wherein: i. the BEMT/BMDBM mass ratio is chosen in the range from 1.5 to 5; ii. the content of BMDBM is comprised between 1% and 5% by weight with regard to the total weight of the composition, iii. the quantity of MBBT is comprised between 3% and 7% by weight with regard to the total weight of the composition, iv. the content of BEMT is comprised between 2% and 6% by weight with regard to the total weight of the composition, said combination containing no octocrylene, PABA or ethylhexyl methoxycinnamate, and a pharmaceutically or cosmetically acceptable excipient. i. the BEMT/BMDBM mass ratio is chosen in the range from 1.5 to 5; ii. the content of BMDBM is comprised between 1% and 5% by weight with regard to the total weight of the composition, iii. the quantity of MBBT is comprised between 3% and 7% by weight with regard to the total weight of the composition, iv. the content of BEMT is comprised between 2% and 6% by weight with regard to the total weight of the composition,
A vessel closure comprising a body, one or more apertures extending axially through the body, one or more inserts extending axially through one or more apertures, and a cast seal disposed within the body and surrounding each insert, characterized in that at least one or more inserts comprise thermoplastic tubing to which an anchor (140, 150, 160) is adhesively attached, the cast seal is bonded to the anchor (140, 150, 160), and the anchor secures the one or more inserts and cast seal to the body.
A formulation comprising: an effective amount of a biocide selected from one or more of 1,2-dibromo-2,4-dicyanobutane, N-butyl-1,2-benzisothiazolin-3-one (butyl-BIT), ortho-phenyl phenol, 3-iodo-2-propynyl butyl carbamate (IPBC), octyl isothiazolinone, dichlorooctylisothiazolinone (DCOIT), chlorothalonil, ß tubulin inhibitors such carbendazim and thiabendazole, diiodomethyl-p-tolylsulfone (DIMTS), triazine-based biocides such as terbutryn, cybutryn, and prometryn, dimethylurea-based biocides such as diuron, isoproturon, chlorotoluron, and fluometuron, azoles such as propiconazole, difenoconazole, cyproconazole, and tebuconazole, 2,2-dibromo-3-nitrilopropionamide (DBNPA), 2-(thiocyanomethylthio) benzothiazole (TCMTB), pyrithiones such as zinc pyrithione, 2-bromo-2-nitropropane-1,3-diol (bronopol), and 2,2-dibromo-3-nitrilopropionamide; and an alkyl polyglycol liquid carrier of formula: R-O- n -H wherein R is methyl; AO is an ethyleneoxide group; and n is the average number of repeating AO units such that the alkyl polyglycol liquid carrier has a molecular weight of 300 to 400 but not including a formulation having 9 wt% 2-bromo-2-nitropropane-1,3-diol (bronopol), 9 wt% 1,2-benzisothiazolin-3-one, 1 wt% D,L-lactic acid, 78 wt% MPEG-350 and 3 wt% water. an effective amount of a biocide selected from one or more of 1,2-dibromo-2,4-dicyanobutane, N-butyl-1,2-benzisothiazolin-3-one (butyl-BIT), ortho-phenyl phenol, 3-iodo-2-propynyl butyl carbamate (IPBC), octyl isothiazolinone, dichlorooctylisothiazolinone (DCOIT), chlorothalonil, ß tubulin inhibitors such carbendazim and thiabendazole, diiodomethyl-p-tolylsulfone (DIMTS), triazine-based biocides such as terbutryn, cybutryn, and prometryn, dimethylurea-based biocides such as diuron, isoproturon, chlorotoluron, and fluometuron, azoles such as propiconazole, difenoconazole, cyproconazole, and tebuconazole, 2,2-dibromo-3-nitrilopropionamide (DBNPA), 2-(thiocyanomethylthio) benzothiazole (TCMTB), pyrithiones such as zinc pyrithione, 2-bromo-2-nitropropane-1,3-diol (bronopol), and 2,2-dibromo-3-nitrilopropionamide; and an alkyl polyglycol liquid carrier of formula: R-O- n -H wherein R is methyl; AO is an ethyleneoxide group; and n is the average number of repeating AO units such that the alkyl polyglycol liquid carrier has a molecular weight of 300 to 400 wherein R is methyl; AO is an ethyleneoxide group; and n is the average number of repeating AO units such that the alkyl polyglycol liquid carrier has a molecular weight of 300 to 400 but not including a formulation having 9 wt% 2-bromo-2-nitropropane-1,3-diol (bronopol), 9 wt% 1,2-benzisothiazolin-3-one, 1 wt% D,L-lactic acid, 78 wt% MPEG-350 and 3 wt% water.
An information transmission method, comprising: generating, by a first device (40, 60), T code blocks; and generating, by the first device (40, 60), N orthogonal frequency division multiplexing, OFDM, symbols according to the T code blocks, wherein the N OFDM symbols are sorted according to a first sequence, and transmitting, by the first device (40, 60) in a first subframe, M of the N OFDM symbols to a second device (50, 70) according to a second sequence, wherein a sequence of the M OFDM symbols sorted according to the first sequence is different from a sequence of the M OFDM symbols sorted according to the second sequence, T and N are positive integers, and M is a positive integer less than N, characterized in that the N OFDM symbols are OFDM symbols transmitted in one subframe; and the first subframe is a subframe on a spectrum preempted by the first device (40, 60) to transmit data, a moment for sending data is random, the first subframe is not a complete subframe such that a quantity of OFDM symbols included in the first subframe is less than N. generating, by a first device (40, 60), T code blocks; and generating, by the first device (40, 60), N orthogonal frequency division multiplexing, OFDM, symbols according to the T code blocks, wherein the N OFDM symbols are sorted according to a first sequence, and transmitting, by the first device (40, 60) in a first subframe, M of the N OFDM symbols to a second device (50, 70) according to a second sequence, wherein a sequence of the M OFDM symbols sorted according to the first sequence is different from a sequence of the M OFDM symbols sorted according to the second sequence, T and N are positive integers, and M is a positive integer less than N, characterized in that the N OFDM symbols are OFDM symbols transmitted in one subframe; and the first subframe is a subframe on a spectrum preempted by the first device (40, 60) to transmit data, a moment for sending data is random, the first subframe is not a complete subframe such that a quantity of OFDM symbols included in the first subframe is less than N.
A yarn processing device that carries out processing of a yarn, comprising: an operation mechanism (70, 80) that performs a plurality of processes by the yarn processing device to carry out the processing of the yarn; and a transmission mechanism that controls the operation of the operation mechanism (70, 80); wherein the transmission mechanism includes a plurality of pattern portions (62a, 62b, 63a, 63b) corresponding to each of the processes; the transmission mechanism is a can mechanism including rotatable plate-like members (62, 63); and the plurality of pattern portions (62a, 62b, 63a, 63b) are formed along an outer periphery of the plate-like members (62, 63), characterized in that a pattern portion (62a, 63a) of the plurality of pattern portions (62a, 62b, 63a, 63b) is arranged along an outer periphery of one of the plate-like members (62, 63) on the side of a plane passing through an initial portion (62i; 63i) and a center line of a shaft of the plate-like members (62, 63), and another pattern portion (62b, 63b) of the plurality of pattern portions (62a, 62b, 63a, 63b) is arranged along an outer periphery of said plate-like member (62, 63) on the other side of the plane, and the shaft is driven by a motor, in which a farward/reverse rotation control can be made. an operation mechanism (70, 80) that performs a plurality of processes by the yarn processing device to carry out the processing of the yarn; and a transmission mechanism that controls the operation of the operation mechanism (70, 80); the transmission mechanism is a can mechanism including rotatable plate-like members (62, 63); and the plurality of pattern portions (62a, 62b, 63a, 63b) are formed along an outer periphery of the plate-like members (62, 63), characterized in that a pattern portion (62a, 63a) of the plurality of pattern portions (62a, 62b, 63a, 63b) is arranged along an outer periphery of one of the plate-like members (62, 63) on the side of a plane passing through an initial portion (62i; 63i) and a center line of a shaft of the plate-like members (62, 63), and another pattern portion (62b, 63b) of the plurality of pattern portions (62a, 62b, 63a, 63b) is arranged along an outer periphery of said plate-like member (62, 63) on the other side of the plane, and the shaft is driven by a motor, in which a farward/reverse rotation control can be made.
Optical image device, more particularly for microlithography, comprising - a mask device for holding a mask (104.1) comprising a projection pattern (104.3), - an optical element group (105.2), - a substrate device for holding a substrate (106.1) and - a measuring device, wherein - the optical element group (105.2) comprises a plurality of optical elements (107, 108, 109, 110, 111, 112) and is configured for imaging the projection pattern (104.3) on the substrate (106.1), - the measuring device is embodied for determining at least one aberration occurring when the projection pattern (104.3) is imaged on the substrate (106.1), - the measuring device comprises an acquisition unit (113.1), - the acquisition unit (113.1) is embodied for acquiring a measurement image, generated by at least a majority of the optical elements (107, 108, 109, 110, 111, 112) of the optical element group (105.2), of at least part of the projection pattern (104.3) and/or at least one measurement element (113.2) arranged in the region of the mask device and - the measuring device is embodied for determining the aberration using the measurement image, characterized in that - the acquisition unit (113.1) is embodied in such a way that the acquisition of the measurement image occurs parallel in time with the imaging of the projection pattern (104.3) on the substrate (106.1) and - the measuring device is embodied in such a way that the determination of the aberration occurs parallel in time with the imaging of the projection pattern (104.3) on the substrate (106.1). - a mask device for holding a mask (104.1) comprising a projection pattern (104.3), - an optical element group (105.2), - a substrate device for holding a substrate (106.1) and - a measuring device, wherein - the optical element group (105.2) comprises a plurality of optical elements (107, 108, 109, 110, 111, 112) and is configured for imaging the projection pattern (104.3) on the substrate (106.1), - the measuring device is embodied for determining at least one aberration occurring when the projection pattern (104.3) is imaged on the substrate (106.1), - the measuring device comprises an acquisition unit (113.1), - the acquisition unit (113.1) is embodied for acquiring a measurement image, generated by at least a majority of the optical elements (107, 108, 109, 110, 111, 112) of the optical element group (105.2), of at least part of the projection pattern (104.3) and/or at least one measurement element (113.2) arranged in the region of the mask device and - the measuring device is embodied for determining the aberration using the measurement image, characterized in that - the acquisition unit (113.1) is embodied in such a way that the acquisition of the measurement image occurs parallel in time with the imaging of the projection pattern (104.3) on the substrate (106.1) and - the measuring device is embodied in such a way that the determination of the aberration occurs parallel in time with the imaging of the projection pattern (104.3) on the substrate (106.1).
A method, operational at a core network entity, comprising: obtaining, at the network entity, a first shared key, wherein the first shared key is shared by a device and the core network entity; obtaining, at the core network entity, a second shared key based on the first shared key, for securing data traffic during transit between the device and a packet data network gateway -P-GW-, wherein the second shared key is shared by the device and the P-GW; sending the second shared key to the P-GW; obtaining, at the core network entity, a third shared key based on the first shared key, for securing control messaging sent between the device and a mobility management entity -MME-, wherein the third shared key is shared by the device and the MME; and sending the third shared key to the MME, wherein the core network entity, the P-GW, and the MME are distinct network entities. obtaining, at the network entity, a first shared key, wherein the first shared key is shared by a device and the core network entity; obtaining, at the core network entity, a second shared key based on the first shared key, for securing data traffic during transit between the device and a packet data network gateway -P-GW-, wherein the second shared key is shared by the device and the P-GW; sending the second shared key to the P-GW; obtaining, at the core network entity, a third shared key based on the first shared key, for securing control messaging sent between the device and a mobility management entity -MME-, wherein the third shared key is shared by the device and the MME; and sending the third shared key to the MME, wherein the core network entity, the P-GW, and the MME are distinct network entities.
A pharmaceutical combination comprising, separately or together, (a) a first agent which is (i) Compound A1, described by Formula A1 below: or a pharmaceutically acceptable salt thereof, or (ii) Compound A2, described by Formula A2 below: or a pharmaceutically acceptable salt thereof, and (b) a second agent which is Compound B, described by Formula B below: or a pharmaceutically acceptable salt thereof, for use in the treatment of neuroblastoma. (a) a first agent which is (i) Compound A1, described by Formula A1 below: or a pharmaceutically acceptable salt thereof, or (ii) Compound A2, described by Formula A2 below: or a pharmaceutically acceptable salt thereof, (i) Compound A1, described by Formula A1 below: or a pharmaceutically acceptable salt thereof, or (ii) Compound A2, described by Formula A2 below: or a pharmaceutically acceptable salt thereof, and (b) a second agent which is Compound B, described by Formula B below: or a pharmaceutically acceptable salt thereof, for use in the treatment of neuroblastoma.
Photomultiplier module (7, 20) comprising a photomultiplier and an electrical circuit for connecting the photomultiplier, which is designed for detecting light and for converting the detected light into an output signal (I A, U A) and which comprises one or more electrodes (21, D1 - D6), with a voltage divider for generating different sub-voltages, which are applied to the electrodes (21, D1 - D6), from one or more different input voltages (H V1, H V2, H V3) which are applied at the voltage divider, characterized in that the voltage divider comprises at least one resistor element (T1, T2), the electrical resistance of which is controlled by the height of a first input voltage (H V1), which is applied to the cathode of the photomultiplier, in such a way that, as a function of the height of the applied first input voltage (H V1), at least one second input voltage (respectively H V2 or H V3), which is different from the first input voltage (H V1), is applied to at least one of the electrodes (respectively D2, D3, D4, D6 or D5) by means of the resistor element (T1, T2).
A method comprising; capturing, via a first sensor of a computing device, images of an environment that the computing device is currently in; detecting whether there are faces captured in the images; the method characterized by comprising: determining, by the computing device, a distance of any detected faces from the computing device; adjusting, by the computing device, a setting on the computing device based on the distance of the faces from the computing device; wherein adjusting the setting comprises adjusting one or more of a brightness of a screen of the computing device, a size of text on the screen and a volume of speakers of the computing device. capturing, via a first sensor of a computing device, images of an environment that the computing device is currently in; detecting whether there are faces captured in the images; determining, by the computing device, a distance of any detected faces from the computing device; adjusting, by the computing device, a setting on the computing device based on the distance of the faces from the computing device; wherein adjusting the setting comprises adjusting one or more of a brightness of a screen of the computing device, a size of text on the screen and a volume of speakers of the computing device.
A method of measuring an object using a CMM, the method comprising: receiving nominal geometry data relating to the object; producing a first scan path based on the received nominal geometry data; conducting a first measurement of the object along the first scan path using a CMM probe, the CMM probe conducting the first measurement by following the first scan path, the first measurement of the object producing measured geometry data relating to the object; generating a second scan path based on the measured geometry data relating to the object from the first measurement; and controlling the CMM probe to conduct a fine measurement of the object by moving the CMM probe along the second scan path relative to the object. receiving nominal geometry data relating to the object; producing a first scan path based on the received nominal geometry data; conducting a first measurement of the object along the first scan path using a CMM probe, the CMM probe conducting the first measurement by following the first scan path, the first measurement of the object producing measured geometry data relating to the object; generating a second scan path based on the measured geometry data relating to the object from the first measurement; and controlling the CMM probe to conduct a fine measurement of the object by moving the CMM probe along the second scan path relative to the object.
An assembly comprising a plurality of elastic lamellas, and a rail element, being a rail brake, wherein said rail brake comprises a friction surface, and a reinforcing supporting structure, wherein said lamellas or a parts of them of said rail element acts as anti-noise barrier or its part or as damper having elastic structure and resulting in absorbing vibrations caused by contact between said at least one wheel of rolling stock and said friction surface, wherein grooves having non-cylindrical cross section in which said lamellas are installed are formed in said friction surface of said rail element, characterized in that further lamellas are positioned either above, or below, or both above and below of said rail element.
A nanostructured surface coating configured to generate visual appearances in a visible spectral band, said coating comprising: - a first layer comprising a random distribution of nanoparticles; - a substrate on which the first layer is arranged; - nanoparticles having an optical refractive index n part having a value suitable for each one individually to scatter the incident light; the coating being characterized in that - the nanoparticles are arranged so that the average distance between two neighbouring particles d is defined according to the following relationship so as to produce interference between the light scattered by the particles: 2 R ≤ d ≤ max λ / n p, R: the smallest geometric radius of a circle enclosing the particle λ: the longest wavelength of the visible spectrum n p: the optical refractive index of the medium of the first layer in which the nanoparticles are dispersed. - a first layer comprising a random distribution of nanoparticles; - a substrate on which the first layer is arranged; - nanoparticles having an optical refractive index n part having a value suitable for each one individually to scatter the incident light; the coating being characterized in that - the nanoparticles are arranged so that the average distance between two neighbouring particles d is defined according to the following relationship so as to produce interference between the light scattered by the particles: 2 R ≤ d ≤ max λ / n p, R: the smallest geometric radius of a circle enclosing the particle λ: the longest wavelength of the visible spectrum n p: the optical refractive index of the medium of the first layer in which the nanoparticles are dispersed.