mhurhangee/patent-ind-claim-en huggingface dataset:
A robot cleaner , comprising: a driving unit configured to move the robot cleaner ; a control unit configured to perform a cleaning operation with respect to a designated region, according to a cleaning command; and a cleaning unit configured to suck dust or foreign materials within the cleaning region or the designated region, according to the cleaning command, a region setting module configured to set the designated region within a cleaning region; wherein the region setting module is configured to set the designated region by operating the driving unit according to a designated region setting command, which is received from an external terminal, characterized in that the region setting module is configured to set the designated region based on a running path after receiving the designated region setting command, and wherein, if a user presses a directional button of the external terminal, the running path is generated and the robot cleaner is configured to move using the driving unit . a driving unit configured to move the robot cleaner ; a control unit configured to perform a cleaning operation with respect to a designated region, according to a cleaning command; and a cleaning unit configured to suck dust or foreign materials within the cleaning region or the designated region, according to the cleaning command, a region setting module configured to set the designated region within a cleaning region; wherein the region setting module is configured to set the designated region by operating the driving unit according to a designated region setting command, which is received from an external terminal, characterized in that the region setting module is configured to set the designated region based on a running path after receiving the designated region setting command, and wherein, if a user presses a directional button of the external terminal, the running path is generated and the robot cleaner is configured to move using the driving unit .
Drainage device for draining road, car park or roof surfaces, with a channel body having a length and with filter material located in the channel body for purifying water polluted by solid particles and/or dissolved contaminants, wherein above the filter material there is provided a water inflow body having a flow-through section with a plurality of flow-through openings , via which the contaminated water enters the filter material, and having a sedimentation chamber for the sedimentation of suspended matter, wherein the water inflow body has at least one water conducting element , via which the contaminated water can be conducted into the sedimentation chamber and from there into the flow-through openings or at least partially directly into the flow-through openings while bypassing the sedimentation chamber , characterised in that the flow-through section of the water inflow body is represented by a dome-like raised area enclosed by the sedimentation chamber of trench-like design.
Test apparatus for an electrosurgical generator , having a first connection port and a second connection port for connecting the test apparatus to a patient circuit of the electrosurgical generator , and having means for generating a DC voltage between the first connection port and the second connection port , characterized in that an RF current path of the patient circuit extends from the first connection port to the second connection port through the test apparatus, and in that the means for generating a DC voltage is powered by an RF current flowing through the RF current path .
Two flat parts of plastic material and a connection device for connecting the flat parts to each other, said flat parts comprising a first wall and a second wall , respectively, that, in an assembled condition of the two flat parts , are arranged against each other, wherein said connection device comprises a through opening formed through the first wall and a first collar formation protruding from the first wall , said first collar formation enclosing an area of the first wall within which the through opening is formed, and a second collar formation protruding from the second wall , wherein said connection device further comprises a flat closure portion connected to the second wall through the second collar formation , a third collar formation protruding from the closure portion coaxially with the second collar formation , and a clip formed on the third collar formation , wherein, in the assembled condition of the two flat parts , the clip is configured to snap-fit with a coupling seat formed at the through opening of the first wall , and the first collar formation of the first wall is configured to be inserted between the second collar formation and the third collar formation of the second wall in such a way to define a labyrinth passage between the first wall and the second wall . wherein said connection device comprises a through opening formed through the first wall and a first collar formation protruding from the first wall , said first collar formation enclosing an area of the first wall within which the through opening is formed, and a second collar formation protruding from the second wall , wherein said connection device further comprises a flat closure portion connected to the second wall through the second collar formation , a third collar formation protruding from the closure portion coaxially with the second collar formation , and a clip formed on the third collar formation , wherein, in the assembled condition of the two flat parts , the clip is configured to snap-fit with a coupling seat formed at the through opening of the first wall , and the first collar formation of the first wall is configured to be inserted between the second collar formation and the third collar formation of the second wall in such a way to define a labyrinth passage between the first wall and the second wall .
Tool system comprising a tool holder which has a plate seat for receiving a cutting plate and has a first contact surface remote from this plate seat , and comprising a clamping element which has an opening comprising a stop for receiving a clamping means and has a second contact surface , the first contact surface and the second contact surface forming an interface between the tool holder and the clamping element , and the tool holder and the clamping element having line portions and the interface comprising a sealing means , characterized in that the sealing means is arranged in the tool holder by means of a fastening means when the tool system is in the clamped and non-clamped state, and the material of the sealing means is not resilient.
A method for preventing or mitigating corrosion in cooling water systems comprising treating the cooling water with an additive consisting of (a) a soluble zinc salt and (b) saccharic acid or a water soluble saccharic acid salt; wherein the additive, when added to cooling water is present at a concentration sufficient to provide from about 30 to about 300 ppm by weight saccharic acid or its soluble salts.
A method for dynamically determining a size of a partition, comprising: receiving, by a computing device, a continuous data stream related to an application; identifying, by the computing device, an input geometry associated with the continuous data stream, the input geometry specifying a region in the continuous data stream to be partitioned; generating, by the computing device, a cluster of geometries based at least in part on the input geometry; generating, by the computing device, an output geometry based at least in part on the cluster of geometries and a number of geometries in each cluster of the cluster of geometries; determining, by the computing device, one or more partitions for the output geometry based on the cluster of geometries and the number of geometries in each cluster of the cluster of geometries; dynamically, by the computing device, changing a size of the one or more partitions for the output geometry; and transmitting, by the computing device, the output geometry associated with the continuous data stream to one or more event sinks to notify notable events in the continuous data stream. receiving, by a computing device, a continuous data stream related to an application; identifying, by the computing device, an input geometry associated with the continuous data stream, the input geometry specifying a region in the continuous data stream to be partitioned; generating, by the computing device, a cluster of geometries based at least in part on the input geometry; generating, by the computing device, an output geometry based at least in part on the cluster of geometries and a number of geometries in each cluster of the cluster of geometries; determining, by the computing device, one or more partitions for the output geometry based on the cluster of geometries and the number of geometries in each cluster of the cluster of geometries; dynamically, by the computing device, changing a size of the one or more partitions for the output geometry; and transmitting, by the computing device, the output geometry associated with the continuous data stream to one or more event sinks to notify notable events in the continuous data stream.
A cleaning lance intended to perform cleaning using both steam and the suction or blowing of air, comprising within it: - a first fluidic circuit , referred to as the air-suction or air-blowing circuit, comprising an air connection end piece designed to be connected to a suction and/or blowing device, an air-suction or air-blowing nozzle , a duct connecting the air connection end piece to the air-suction or air-blowing nozzle; - a second fluidic circuit , referred to as the steam generating circuit, comprising a connection end piece for connection to a pressurized liquid supply, a steam ejection nozzle , a duct connecting the connection end piece to the steam ejection nozzle, the duct housing, from upstream to downstream: • a pressurized-liquid spray nozzle designed to spray the pressurized liquid in the form of droplets, • means for generating droplets of steam from the droplets of spray, • a nozzle for atomizing the generated steam. - a first fluidic circuit , referred to as the air-suction or air-blowing circuit, comprising an air connection end piece designed to be connected to a suction and/or blowing device, an air-suction or air-blowing nozzle , a duct connecting the air connection end piece to the air-suction or air-blowing nozzle; - a second fluidic circuit , referred to as the steam generating circuit, comprising a connection end piece for connection to a pressurized liquid supply, a steam ejection nozzle , a duct connecting the connection end piece to the steam ejection nozzle, the duct housing, from upstream to downstream: • a pressurized-liquid spray nozzle designed to spray the pressurized liquid in the form of droplets, • means for generating droplets of steam from the droplets of spray, • a nozzle for atomizing the generated steam. • a pressurized-liquid spray nozzle designed to spray the pressurized liquid in the form of droplets, • means for generating droplets of steam from the droplets of spray, • a nozzle for atomizing the generated steam.
A transmission module for a mobile terminal, the transmission module comprising a mounting seat and a transmission assembly , the transmission assembly comprises a driving member , a first pushing member and a second pushing member , wherein the first pushing member and the second pushing member are correspondingly coupled to the mounting seat ; a cooperation between the driving member and the first pushing member is configured to move the second pushing member and drive the first pushing member to move from a first position to a third position via a second position; between the first position and the second position, the first pushing member is configured to move the second pushing member and the mounting seat ; between the second position and the third position, the first pushing member moves relative to the second pushing member and is configured to rotate the mounting seat ; wherein the first pushing member comprises a first connecting portion and a second connecting portion coupled to the first connecting portion , and the first connecting portion meshes with the driving member ; characterized in that , the first connecting portion comprises a first wedge block , and the second pushing member is provided with a limiting hole ; the transmission module comprises a second wedge block , a pin shaft coupled to the second wedge block and a first elastic member coupled to the pin shaft ; at the second position, the first wedge block abuts against the second wedge block , and between the second position and the third position, the first wedge block is slidable along the second wedge block and abuts against the second wedge block , so as to drive the second wedge block to compress the first elastic member and clamp the pin shaft to the limiting hole ; between the second position and the third position, the second connecting portion is slidable relative to the second pushing member to drive the mounting seat to rotate. wherein the first pushing member comprises a first connecting portion and a second connecting portion coupled to the first connecting portion , and the first connecting portion meshes with the driving member ; characterized in that , the first connecting portion comprises a first wedge block , and the second pushing member is provided with a limiting hole ; the transmission module comprises a second wedge block , a pin shaft coupled to the second wedge block and a first elastic member coupled to the pin shaft ; at the second position, the first wedge block abuts against the second wedge block , and between the second position and the third position, the first wedge block is slidable along the second wedge block and abuts against the second wedge block , so as to drive the second wedge block to compress the first elastic member and clamp the pin shaft to the limiting hole ; between the second position and the third position, the second connecting portion is slidable relative to the second pushing member to drive the mounting seat to rotate.
A method of machining an abradable material of a gas turbine engine utilizing a system including a frame , a first arm extending from a central location of the frame , and a cutting apparatus coupled to a first distal end of the first arm and including a rotating shaft and a plurality of cutting disks coupled to the rotating shaft such that the cutting disks define a helical cutting profile , wherein the gas turbine machine has an axial centerline axis extending along an axial direction (A) and a radial direction (R) extending perpendicular from the axial centerline , the method comprising: securing the frame of the system to at least a fan rotor of the gas turbine engine utilizing an attachment structure of the system , the attachment structure coupled to the frame at the central location ; adjusting the cutting apparatus in the axial direction (A) of the gas turbine engine utilizing an axial adjuster coupled between the first distal end of the first arm and the cutting apparatus such that the cutting apparatus is axially aligned with the abradable material; driving the rotating shaft of the cutting apparatus such that the plurality of cutting disks rotates about an axis parallel to the axial direction A; and adjusting the cutting apparatus in the radial direction (R) of the gas turbine engine utilizing a radial adjuster coupled between the first distal end of the first arm and the cutting apparatus such that at least one of the cutting disks contacts the abradable material in order to machine the abradable material. securing the frame of the system to at least a fan rotor of the gas turbine engine utilizing an attachment structure of the system , the attachment structure coupled to the frame at the central location ; adjusting the cutting apparatus in the axial direction (A) of the gas turbine engine utilizing an axial adjuster coupled between the first distal end of the first arm and the cutting apparatus such that the cutting apparatus is axially aligned with the abradable material; driving the rotating shaft of the cutting apparatus such that the plurality of cutting disks rotates about an axis parallel to the axial direction A; and adjusting the cutting apparatus in the radial direction (R) of the gas turbine engine utilizing a radial adjuster coupled between the first distal end of the first arm and the cutting apparatus such that at least one of the cutting disks contacts the abradable material in order to machine the abradable material.
A method implemented by a transmitter, the method comprising: inserting a first reference signal and a plurality of bit fields on a first channel, to produce a first signal, wherein the plurality of bit fields comprises a first bit field indicating whether a second reference signal is transmitted on a second channel, a second bit field indicating whether the first reference signal has the same precoding as the second reference signal, a third bit field indicating whether precoding of the first reference signal shares some characteristics with the precoding of the second reference signal, and a fourth bit field indicating transmission precoding differences between the first reference signal and the second reference signal, wherein the characteristics comprise transmission precoding gain and transmission precoding center angle; performing precoding on the first channel, to produce a first transmission signal; performing precoding on the second channel, to produce a second transmission signal; transmitting , to a receiver, the first transmission signal; and transmitting , to the receiver, the second transmission signal. inserting a first reference signal and a plurality of bit fields on a first channel, to produce a first signal, wherein the plurality of bit fields comprises a first bit field indicating whether a second reference signal is transmitted on a second channel, a second bit field indicating whether the first reference signal has the same precoding as the second reference signal, a third bit field indicating whether precoding of the first reference signal shares some characteristics with the precoding of the second reference signal, and a fourth bit field indicating transmission precoding differences between the first reference signal and the second reference signal, wherein the characteristics comprise transmission precoding gain and transmission precoding center angle; performing precoding on the first channel, to produce a first transmission signal; performing precoding on the second channel, to produce a second transmission signal; transmitting , to a receiver, the first transmission signal; and transmitting , to the receiver, the second transmission signal.
A spacecraft (28, 98, 108 to 122) comprising: - a support structure having two base walls disposed parallel and at a distance from each other and at least three flat side walls attached to the base walls, - at least one main communication antenna comprising: - at least one radiating element carried by at least one flat side wall , said at least one radiating element having a central axis of radiation (Ac-Ac), said at least one radiating element being able to emit or receive radiofrequency waves, - a movable arm able to displace between a deployed position and a folded position, - a reflector carried by the movable arm, said reflector being suitable for reflecting or receiving radiofrequency waves in an emission direction (D E ), when the movable arm is in a deployed position, characterised in that said at least one radiating element is attached to at least one side wall so that the central axis of radiation (A c -A c ) of the radiating element is arranged perpendicular to said at least one side wall carrying said at least one radiating element , and in that the movable arm is shaped so that an offset angle (β) comprised between 25° and 65° is formed between said at least one side wall carrying said at least one radiating element and the emission direction (D E ), when the movable arm is in a deployed position. - a support structure having two base walls disposed parallel and at a distance from each other and at least three flat side walls attached to the base walls, - at least one main communication antenna comprising: - at least one radiating element carried by at least one flat side wall , said at least one radiating element having a central axis of radiation (Ac-Ac), said at least one radiating element being able to emit or receive radiofrequency waves, - a movable arm able to displace between a deployed position and a folded position, - a reflector carried by the movable arm, said reflector being suitable for reflecting or receiving radiofrequency waves in an emission direction (D E ), when the movable arm is in a deployed position,
A heterocycle-containing amino acid compound represented by a formula : wherein R 1 , R 2 and R 3 are identical with or different from each other, and represent a hydrogen atom or a carboxyl-protecting group selected from C 1-6 linear, branched or cyclic alkyl group, benzyl group, p-nitrobenzyl group, o-nitrobenzyl group, m-nitrobenzyl group, 2,4-dinitrobenzyl group, p-chlorobenzyl group, p-bromobenzyl group, p-methoxybenzyl group, acetoxymethyl group, acetoxyethyl group, propionyloxymethyl group, n-butyryloxymethyl group, iso-butyryloxymethyl group, and pivaloyloxymethyl group; R 4 represents a hydrogen atom or a hydroxyl-protecting group selected from C 1-6 linear or branched alkyl group, benzyl group, p-nitrobenzyl group, o-nitrobenzyl group, m-nitrobenzyl group, 2,4-dinitrobenzyl group, p-chlorobenzyl group, p-bromobenzyl group, p-methoxybenzyl group, trialkylsilyl group, tetrahydropyran-2-yl group, methoxymethyl group, methoxyethoxymethyl group, and alkoxycarbonyl group; R 5 represents a hydrogen atom or an amino-protecting group selected from methoxycarbonyl group, ethoxycarbonyl group, 2,2,2-trichloroethoxycarbonyl group, tert-butoxycarbonyl group, alkenyloxycarbonyl group, aralkyloxycarbonyl group, benzyl group, p-nitrobenzyl group, o-nitrobenzyl group, m-nitrobenzyl group, 2,4-dinitrobenzyl group, p-chlorobenzyl group, p-bromobenzyl group, p-methoxybenzyl group, acyl group, arylsulfonyl group, and alkylsulfonyl group; and n represents an integer of 1 or 2, or a salt thereof.
A method for modifying film oxygen transmittance rate of a solid film or coat comprising or consisting nanocrystalline cellulose (NCC), the method comprising: - forming onto at least a surface region of a substrate a film or a coat of a formulation comprising (a) NCC, (b) an additive composition and (c) at least one crosslinking agent and optionally at least one catalyst; the additive composition consisting at least one -OH-rich material selected from sorbitol, polyvinyl alcohol (PVOH), polycarboxylate ether, carbohydrates and borax, and at least one hygroscopic material selected from cellulosic materials, carbohydrates, alcohols, acids and inorganic salts, wherein the ratio of the at least one OH-rich material to the at least one hygroscopic material is from 0.01:1 to 1:0.01 (w/w), and - allowing said film or coat to form into a solid film or coat; wherein the oxygen transmittance rate is modified in relation to a film or a coat consisting NCC. - forming onto at least a surface region of a substrate a film or a coat of a formulation comprising (a) NCC, (b) an additive composition and (c) at least one crosslinking agent and optionally at least one catalyst; the additive composition consisting at least one -OH-rich material selected from sorbitol, polyvinyl alcohol (PVOH), polycarboxylate ether, carbohydrates and borax, and at least one hygroscopic material selected from cellulosic materials, carbohydrates, alcohols, acids and inorganic salts, wherein the ratio of the at least one OH-rich material to the at least one hygroscopic material is from 0.01:1 to 1:0.01 (w/w), and (a) NCC, (b) an additive composition and (c) at least one crosslinking agent and optionally at least one catalyst; - allowing said film or coat to form into a solid film or coat;