mhurhangee/patent-ind-claim-en huggingface dataset:
A constant mesh gearbox having a plurality of individually selectable forward speed ratios, the constant mesh gearbox comprises: a casing defining a plurality of parallel rotational axes (11-13), said axes comprising a co-axial input and output axis and two intermediate axes ; gear wheel pairs for driving between shaft members rotatable on said axes; an input shaft rotatable on said input axis, a first shaft rotatable on one of said intermediate axes, and a second shaft rotatable on another of said intermediate axes, said first and second shafts being directly connected by a first gear wheel train (51-53); a sleeve rotatable on said second shaft and adapted for rotational coupling therewith; an idler gear wheel (64, 82; 74, 81) rotatable on said first shaft that rotationally couples said sleeve with said input shaft , said idler gear wheel (64, 82; 74, 81) comprising a first driving gear wheel associated with the input shaft and a first driven gear wheel in side-by-side relationship and associated with said sleeve ; and a gear wheel pair (91; 93, 92; 94) comprising a second driving gear wheel and a second driven gear wheel , said gear wheel pair (91; 93, 92; 94) being for rotationally coupling said sleeve with said first shaft , and said gear wheel pair (91, 93; 92, 94) being adjacent to said first driving gear wheel . a casing defining a plurality of parallel rotational axes (11-13), said axes comprising a co-axial input and output axis and two intermediate axes ; gear wheel pairs for driving between shaft members rotatable on said axes; an input shaft rotatable on said input axis, a first shaft rotatable on one of said intermediate axes, and a second shaft rotatable on another of said intermediate axes, said first and second shafts being directly connected by a first gear wheel train (51-53); a sleeve rotatable on said second shaft and adapted for rotational coupling therewith; an idler gear wheel (64, 82; 74, 81) rotatable on said first shaft that rotationally couples said sleeve with said input shaft , said idler gear wheel (64, 82; 74, 81) comprising a first driving gear wheel associated with the input shaft and a first driven gear wheel in side-by-side relationship and associated with said sleeve ; and a gear wheel pair (91; 93, 92; 94) comprising a second driving gear wheel and a second driven gear wheel , said gear wheel pair (91; 93, 92; 94) being for rotationally coupling said sleeve with said first shaft , and said gear wheel pair (91, 93; 92, 94) being adjacent to said first driving gear wheel .
Wheel with a drive unit for a vehicle, in particular for a motor scooter , a quad bike or a passenger car, wherein the wheel comprises - an inner ring designed as a stator, which is connected to a wheel suspension of the wheel ; - a rim ring designed as a rotor and having an axis of rotation , wherein the rim ring rotates around the outside of the inner ring and the axis of rotation and the holder axis extend at least substantially parallel to one another, wherein the wheel suspension is arranged eccentrically at a distance from the axis of rotation , and a plurality of winding strands is arranged on the outside of the inner ring ; characterized in that on the inner side of the rim ring , opposite each winding strand , one magnet device each is arranged, wherein the magnet devices are arranged with alternating polarity and the winding strands each comprise three conductor tracks arranged in meandering form, wherein an insulation device is respectively arranged between the conductor tracks . - an inner ring designed as a stator, which is connected to a wheel suspension of the wheel ; - a rim ring designed as a rotor and having an axis of rotation , wherein the rim ring rotates around the outside of the inner ring and the axis of rotation and the holder axis extend at least substantially parallel to one another,
Control valve adapted to be arranged in a fuel injector or a fuel pump of an internal combustion engine between an injector upper member and a nozzle assembly, said control valve having a body defining an upper face adapted to be pressed against a complementary face of said upper member, a hydraulic bore extending about a main axis (X) and in which is axially guided an armature-and-spool assembly , said hydraulic bore opening in said upper end face , the spool of said assembly having an upper end region defining an upper end face adapted to be pressed in sealing contact against said complementary face and wherein, said upper end region is further provided with an annular groove arranged in close vicinity to said upper end face , a disc-flange comprising the peripheral edge area of the upper end face being defined between said upper end face and said groove , said groove providing resilient elasticity to said disc portion and, characterized in that said spool is further provided with an inner channel axially (X) extending and centrally opening in said upper end face , fuel at low pressure flowing in use in said inner channel , wherein the opening of the hydraulic bore in the valve upper face faces a hollow dug in said complementary face , said hollow having a smaller section than the bore so that, when pressed against said complementary face , the peripheral edge area of the spool upper end face comes in contact against an annular area surrounding said hollow , said disc-flange deflecting and ensuring a more regular sealing contact all around the edge area .
A cleansing device for use with a skin cleansing or treating composition, the cleansing device comprising: a handle ; an electrical motor disposed within the handle and attached to an actuator , said motor and actuator adapted to apply an oscillating movement at a frequency of about 5 Hz to 30 Hz; and a cleansing head having a first major surface and a second major surface, the first major surface comprising a plurality of elastomeric cleansing features extending away from the first major surface and having a height of 0.5 mm to 5mm and a width to height aspect ratio in the range of about 1:5 to about 10:1, further wherein each cleansing feature has a substantially continuous contact surface of at least about 1 mm 2 or greater configured for contacting the skin in a stick-slip action, wherein the actuator is attached to the second major surface of the cleansing head to apply oscillating movement to the cleansing features, wherein the oscillating movement provides a total displacement per oscillation of about 0.5 mm to 8 mm, wherein the stick-slip action includes a static friction phase in which the cleansing feature is not moved relative to the skin thereby causing skin stretching as the cleansing feature is moved and a dynamic friction phase in which the cleansing feature slides over the skin surface, the static friction phase and the sliding friction phase being carried out alternately during the movement of the cleansing feature. a handle ; an electrical motor disposed within the handle and attached to an actuator , said motor and actuator adapted to apply an oscillating movement at a frequency of about 5 Hz to 30 Hz; and a cleansing head having a first major surface and a second major surface, the first major surface comprising a plurality of elastomeric cleansing features extending away from the first major surface and having a height of 0.5 mm to 5mm and a width to height aspect ratio in the range of about 1:5 to about 10:1, further wherein each cleansing feature has a substantially continuous contact surface of at least about 1 mm 2 or greater configured for contacting the skin in a stick-slip action,
A method of identifying one or more circulating tumor cells (CTCs) comprising: (i) contacting a blood or blood serum sample from a subject with a composition comprising a compound of formula (I), formula (II), formula (III) or formula (IV) wherein: n is an integer from 16 to 30; Y is selected from the group consisting of -H, -OH, -OR 1 , -C(O)OH, and -OC(O)R 1 , wherein R 1 is an alkyl; and X is a luminescent molecule or a magnetic bead attached via a linker; and (ii) subjecting the blood or blood serum sample from the subject to fluorescent microscopy or flow cytometry, wherein the one or more CTCs is selected from the group consisting of a breast cancer cell, a lung cancer cell, a thyroid cancer cell, a cervical cancer cell, a squamous cell carcinoma cell, a prostate cancer cell, a pancreas cancer cell, a colorectal cancer cell, a cancer stem cell, a leukemia cell, and a lymphoma cell. (i) contacting a blood or blood serum sample from a subject with a composition comprising a compound of formula (I), formula (II), formula (III) or formula (IV) wherein: n is an integer from 16 to 30; Y is selected from the group consisting of -H, -OH, -OR 1 , -C(O)OH, and -OC(O)R 1 , wherein R 1 is an alkyl; and X is a luminescent molecule or a magnetic bead attached via a linker; and n is an integer from 16 to 30; Y is selected from the group consisting of -H, -OH, -OR 1 , -C(O)OH, and -OC(O)R 1 , wherein R 1 is an alkyl; and X is a luminescent molecule or a magnetic bead attached via a linker; and (ii) subjecting the blood or blood serum sample from the subject to fluorescent microscopy or flow cytometry, wherein the one or more CTCs is selected from the group consisting of a breast cancer cell, a lung cancer cell, a thyroid cancer cell, a cervical cancer cell, a squamous cell carcinoma cell, a prostate cancer cell, a pancreas cancer cell, a colorectal cancer cell, a cancer stem cell, a leukemia cell, and a lymphoma cell.
A method for manufacturing fluid control means for controlling a fluid flow through a valve , said method comprising the steps of • forming nut means with an inner through hole , wherein said nut means are primarily made from a first material, • forming wedge means with a nut cavity , wherein said wedge means are primarily made from a second material and wherein said first material is harder than said second material or said second material is harder than said first material, • arranging said nut means inside said nut cavity , and • connecting said nut means and wedge means by expanding said nut means by means of mandrel means to make said nut means and said wedge means engage each other. • forming nut means with an inner through hole , wherein said nut means are primarily made from a first material, • forming wedge means with a nut cavity , wherein said wedge means are primarily made from a second material and wherein said first material is harder than said second material or said second material is harder than said first material, • arranging said nut means inside said nut cavity , and • connecting said nut means and wedge means by expanding said nut means by means of mandrel means to make said nut means and said wedge means engage each other.
A cryogen free cooling apparatus comprising: a vacuum chamber ; a heat radiation shield surrounding a working region and located in the vacuum chamber; a cryofree cooling system having a cooling stage coupled to the heat radiation shield; a cold body within the vacuum chamber, wherein the cold body is formed by a surface linked to a cold plate coupled to the cooling stage of the cooling system; aligned apertures in the heat radiation shield and vacuum chamber wall; sample loading apparatus having one or more elongate probes and a sample holding device attached to the one or more elongate probes for inserting the sample holding device through the aligned apertures to the working region; one or more thermal connectors, whereby the sample holding device is releasably connected for heat conduction via said thermal connector(s) to the cold body so as to pre-cool a sample on or in the sample holding device before the sample holding device is inserted into the working region ; and a support located at the working region; characterised in that the sample holding device includes one or more electrical connectors to allow electrical and thermal connections to be made to the support in the working region . a vacuum chamber ; a heat radiation shield surrounding a working region and located in the vacuum chamber; a cryofree cooling system having a cooling stage coupled to the heat radiation shield; a cold body within the vacuum chamber, wherein the cold body is formed by a surface linked to a cold plate coupled to the cooling stage of the cooling system; aligned apertures in the heat radiation shield and vacuum chamber wall; sample loading apparatus having one or more elongate probes and a sample holding device attached to the one or more elongate probes for inserting the sample holding device through the aligned apertures to the working region; one or more thermal connectors, whereby the sample holding device is releasably connected for heat conduction via said thermal connector(s) to the cold body so as to pre-cool a sample on or in the sample holding device before the sample holding device is inserted into the working region ; and a support located at the working region; characterised in that the sample holding device includes one or more electrical connectors to allow electrical and thermal connections to be made to the support in the working region .
A data channel transmission bandwidth determination method, performed by a network side device, comprising: transmitting , to a terminal, scheduling information for scheduling data channel transmission; wherein the scheduling information comprises data channel transmission bandwidth indication information; characterized in that , there is a first correspondence between the data channel transmission bandwidth indication information and a data channel transmission bandwidth size, and there is a second correspondence between the data channel transmission bandwidth size and a data channel transmission bandwidth position; wherein the first correspondence and the second correspondence are agreed on by the network side device and the terminal before the transmitting , to the terminal, of the scheduling information for scheduling data channel transmission. transmitting , to a terminal, scheduling information for scheduling data channel transmission; wherein the scheduling information comprises data channel transmission bandwidth indication information; characterized in that , there is a first correspondence between the data channel transmission bandwidth indication information and a data channel transmission bandwidth size, and there is a second correspondence between the data channel transmission bandwidth size and a data channel transmission bandwidth position; wherein the first correspondence and the second correspondence are agreed on by the network side device and the terminal before the transmitting , to the terminal, of the scheduling information for scheduling data channel transmission.
A destratification fan assembly for an industrial environment that is delimited on the top by a ceiling, wherein the destratification fan assembly comprises: - a support frame fixable to said ceiling of the industrial environment; - a blade group rotatable about a main axis (X-X); - an electric motor group extending along the main axis (X-X) supporting said blade group and supported by said support frame , comprising: i) a drive shaft extending along said main axis (X-X) having a blade end to which the blade group is solidly connected; ii) an electric motor operatively connected to the drive shaft , wherein the electric motor comprises a rotor and a stator , wherein the rotor is operatively connected to the drive shaft ; iii) an electronic command device of the electric motor positioned along the main axis (X-X); wherein the destratification fan assembly is characterized by the fact that the rotor is of the external rotor type. - a support frame fixable to said ceiling of the industrial environment; - a blade group rotatable about a main axis (X-X); - an electric motor group extending along the main axis (X-X) supporting said blade group and supported by said support frame , comprising: i) a drive shaft extending along said main axis (X-X) having a blade end to which the blade group is solidly connected; ii) an electric motor operatively connected to the drive shaft , wherein the electric motor comprises a rotor and a stator , wherein the rotor is operatively connected to the drive shaft ; iii) an electronic command device of the electric motor positioned along the main axis (X-X); wherein the destratification fan assembly is characterized by the fact that the rotor is of the external rotor type. i) a drive shaft extending along said main axis (X-X) having a blade end to which the blade group is solidly connected; ii) an electric motor operatively connected to the drive shaft , wherein the electric motor comprises a rotor and a stator , wherein the rotor is operatively connected to the drive shaft ; iii) an electronic command device of the electric motor positioned along the main axis (X-X);
A method comprising: receiving, at a server, a request from a smart device wherein the request includes at least one condition; designating, at the server, an ATM among a plurality of ATMs, wherein the server designates the ATM based on the at least one condition included in the request transmitting a first message from the server to the smart device and a second message from the server to the ATM; wherein the first message is configured to cause the smart device to emit a first sound and the second message includes instructions to cause the ATM to emit a second sound; and the smart device and the ATM are configured to emit the first sound and the second sound in a complementary fashion; receiving, at the server, a location signal from the smart device; determining, at the server and using the location signal, that the smart device approaches the ATM and transmitting a third message from the server to the smart device and a fourth message from the server to the ATM wherein the third and the fourth messages cause the smart device and the ATM to emit sounds according to a pattern wherein the third message includes instructions for the smart device to increase a volume of the smart device and the fourth message includes instructions for the ATM to increase a volume of the ATM. receiving, at a server, a request from a smart device wherein the request includes at least one condition; designating, at the server, an ATM among a plurality of ATMs, wherein the server designates the ATM based on the at least one condition included in the request transmitting a first message from the server to the smart device and a second message from the server to the ATM; wherein the first message is configured to cause the smart device to emit a first sound and the second message includes instructions to cause the ATM to emit a second sound; and the smart device and the ATM are configured to emit the first sound and the second sound in a complementary fashion; receiving, at the server, a location signal from the smart device; determining, at the server and using the location signal, that the smart device approaches the ATM and transmitting a third message from the server to the smart device and a fourth message from the server to the ATM wherein the third and the fourth messages cause the smart device and the ATM to emit sounds according to a pattern wherein the third message includes instructions for the smart device to increase a volume of the smart device and the fourth message includes instructions for the ATM to increase a volume of the ATM.
Method, implemented by computer, for optimizing a decomposition of an asynchronous signal produced by a light sensor on a decomposition basis specific to a transformation, the sensor having a pixel matrix disposed opposite a scene, the method comprising: /a/ obtaining a decomposition of said asynchronous signal for a given first instant on the decomposition basis; /b/ receiving from the light sensor the asynchronous signal comprising at least one event coming from a pixel of the matrix, the at least one event having been produced by the sensor between the first instant and a second later instant; /c/ determining a first value of said pixel (x̂(l,c)) for the first instant; /d/ determining a second value of said pixel (x̂(l,c)) for the second instant as a function of the at least one event ; /e/ determining an update of the decomposition obtained as a function of said obtained decomposition, of a difference between the first value and of the second value and of a term ( E l,c ) dependent on coordinates of said pixel (l,c) and the decomposition basis of said transformation. /a/ obtaining a decomposition of said asynchronous signal for a given first instant on the decomposition basis; /b/ receiving from the light sensor the asynchronous signal comprising at least one event coming from a pixel of the matrix, the at least one event having been produced by the sensor between the first instant and a second later instant; /c/ determining a first value of said pixel (x̂(l,c)) for the first instant; /d/ determining a second value of said pixel (x̂(l,c)) for the second instant as a function of the at least one event ; /e/ determining an update of the decomposition obtained as a function of said obtained decomposition, of a difference between the first value and of the second value and of a term ( E l,c ) dependent on coordinates of said pixel (l,c) and the decomposition basis of said transformation.
A method for a first receiver receiving data from a first transmitter in a first communication link, the first communication link sharing a communication channel with a second communication link between a second transmitter and a second receiver in a wireless network, the first communication link corresponding to a first set of beam directions, the method comprising: - receiving data from the first transmitter in a first active beam direction in the first communication link, in presence of interference from the second communication link; - determining whether a communication quality satisfies a predefined criterion; - selecting a first beam direction from the first set of beam directions in response to determining the communication quality satisfying the predefined criterion; and - in response to the selected first beam direction being other than the first active beam direction, sending a signaling to the second transmitter of the second communication link, wherein the signaling indicates that the second transmitter is not required to suspend transmitting to the second receiver in the second communication link. - receiving data from the first transmitter in a first active beam direction in the first communication link, in presence of interference from the second communication link; - determining whether a communication quality satisfies a predefined criterion; - selecting a first beam direction from the first set of beam directions in response to determining the communication quality satisfying the predefined criterion; and - in response to the selected first beam direction being other than the first active beam direction, sending a signaling to the second transmitter of the second communication link, wherein the signaling indicates that the second transmitter is not required to suspend transmitting to the second receiver in the second communication link.
A polyester polyol comprising a structural unit derived from a dicarboxylic acid and a structural unit derived from an aliphatic diol, wherein a structural unit derived from 1,10-decanediol is contained as said aliphatic diol unit; said polyester polyol has a number average molecular weight of 250 to 5000; and said polyester polyol contains 0.01 to 0.5% by weight aldehyde body, wherein the number average molecular weight and the content of aldehyde body are determined by using the methods disclosed in the specification.