mhurhangee/patent-ind-claim-en huggingface dataset:
Deaerator for deaerating a fluid in an air conditioning installation, having a valve body comprising a container containing an air relief valve (18-21) and further comprising a conduit for connecting to the installation, wherein the conduit is sealingly connected to the container by a union so as to be able to rotate with respect to the container , wherein in the conduit and in the union fluid intercepting and guiding means are provided for conveying the delivery fluid to the container and from here conveying the deaerated return fluid to the conduit and wherein flow disturbing means are provided for separating the air from the fluid and driving the air relief valve, wherein the intercepting and guiding means comprise a deflector obtained in the conduit and walls obtained in the union , characterized in that the walls obtained in the union comprise a series of walls on four sides and a middle wall , that form two longitudinal channels , respectively fluid delivery and return channels, along the union , at the middle wall the conduit has internally the deflector in the form of an annular ridge, wherein the container and the union are connected by two respective flanges , and wherein the union is arranged offset with respect to the flanges .
A motor oil-cooling structure (A1) for cooling coils with use of oil, wherein the coils are wound around split stator cores of a motor (M), wherein the motor (M) includes a motor case , a rotor rotatably supported by the motor case to rotate about a motor axis (ML), and a stator including the split stator cores fixed to the motor case and arranged along a cylindrical outer periphery of the rotor , the motor oil-cooling structure (A1) comprising: injection holes arranged in a circumferential direction of the split stator cores on a plane orthogonal to the motor axis (ML) so as to axially face the split stator cores , wherein: each of the injection holes is structured to inject oil toward a corresponding one of coil gaps each of which is formed between two of the split stator cores adjacent to each other; characterized in that each of the injection holes is structured to inject oil in a direction inclined by a circumferential inclination angle ( θ 1) with respect to a direction of the motor axis (ML), wherein oil injected to the coil gaps in the direction of the motor axis (ML) passes straight through the coil gaps . injection holes arranged in a circumferential direction of the split stator cores on a plane orthogonal to the motor axis (ML) so as to axially face the split stator cores , wherein: each of the injection holes is structured to inject oil toward a corresponding one of coil gaps each of which is formed between two of the split stator cores adjacent to each other; characterized in that each of the injection holes is structured to inject oil in a direction inclined by a circumferential inclination angle ( θ 1) with respect to a direction of the motor axis (ML), wherein oil injected to the coil gaps in the direction of the motor axis (ML) passes straight through the coil gaps . each of the injection holes is structured to inject oil toward a corresponding one of coil gaps each of which is formed between two of the split stator cores adjacent to each other; characterized in that each of the injection holes is structured to inject oil in a direction inclined by a circumferential inclination angle ( θ 1) with respect to a direction of the motor axis (ML), wherein oil injected to the coil gaps in the direction of the motor axis (ML) passes straight through the coil gaps .
A plug-in joining member for connecting ends of window profiles, formed as an elongated piece with an U-shaped cross-section, having a bottom wall and side walls adjacent to the said bottom wall down its side edges, where the joining member has friction claws provided on side walls on both sides of the central line (O) and turned towards the said central line (O) of the joining member , and having at least one central stop, characterized in that cam radiuses ( R 1 , R 2 , R 3 and R 4 ) of working portions for each subsequent friction claw on each specific side wall gradually increase down the both directions from far ends of the joining member towards its central line (O), whilst tips of working portions on friction claws after having the said friction claws bent out to their working positions are arranged at the same elevation above the bottom wall .
Device for the introducing and maintaining of a cartridge in an inkjet printer of the CIJ type, comprising: - a first support , delimited by two lateral sides , a back side and a front opening , this first support able to contain a cartridge and the back side being provided with means of fluidic connection; - a second support , called the cartridge support, against which a cartridge can be maintained, this second support able to be actuated in rotation about a first axis of rotation extending between the two lateral sides of the first support, between a position for loading and for unloading a cartridge, and a position for connecting a cartridge to said means of fluidic connection, said second support being, in said position for connecting, at least partly contained within the first support and comprising means of connection of a cartridge which come opposite, or in contact, with said means of fluidic connection of the back side of said first support ; - means for actuating the second support in rotation about the first axis . - a first support , delimited by two lateral sides , a back side and a front opening , this first support able to contain a cartridge and the back side being provided with means of fluidic connection; - a second support , called the cartridge support, against which a cartridge can be maintained, this second support able to be actuated in rotation about a first axis of rotation extending between the two lateral sides of the first support, between a position for loading and for unloading a cartridge, and a position for connecting a cartridge to said means of fluidic connection, said second support being, in said position for connecting, at least partly contained within the first support and comprising means of connection of a cartridge which come opposite, or in contact, with said means of fluidic connection of the back side of said first support ; - means for actuating the second support in rotation about the first axis .
A hearing aid device comprising a housing configured to be positioned at least partly in the ear canal of a wearer, in which a battery drawer for accommodating a circular battery is mounted pivotally and the battery drawer being operable between a closed state and an open state, wherein the battery drawer includes an embedded antenna unit having an operational frequency in the range 2 to 6 GHz, and the hearing aid device further comprises a wireless interface in electrical communication with the embedded antenna unit, characterized in that when a circular battery is positioned in the battery drawer, at least a part of the embedded antenna unit extends along a part of the circular circumference of the circular battery where a constant distance is maintained between them and thereby a part of the embedded antenna unit conforms to the shape of the battery.
A digital optical transmitter comprising: pre-equalization factor computation means (102; 203) for generating transform functions; pre-equalization signal generation means (101; 202) for generating third data and fourth data from first data and second data, by the use of the generated transform functions; and an optical modulator comprising a splitting unit for splitting an optical signal into two, a first optical modulator for performing optical modulation of one of the split optical signals on the basis of the third data, a second optical modulator for performing optical modulation of the other one of the split optical signals on the basis of the fourth data, and a combining unit for combining the two optical signals having received the optical modulations and outputting the combined optical signal, characterized in that the transform functions are functions for generating the third data by adding the second data modified by a characteristic of the optical modulator , to the first data, and generating the fourth data by adding the first data modified by a characteristic of the optical modulator , to the second data, in a manner to compensate waveform distortion to occur in the optical modulator . pre-equalization factor computation means (102; 203) for generating transform functions; pre-equalization signal generation means (101; 202) for generating third data and fourth data from first data and second data, by the use of the generated transform functions; and an optical modulator comprising a splitting unit for splitting an optical signal into two, a first optical modulator for performing optical modulation of one of the split optical signals on the basis of the third data, a second optical modulator for performing optical modulation of the other one of the split optical signals on the basis of the fourth data, and a combining unit for combining the two optical signals having received the optical modulations and outputting the combined optical signal, characterized in that the transform functions are functions for generating the third data by adding the second data modified by a characteristic of the optical modulator , to the first data, and generating the fourth data by adding the first data modified by a characteristic of the optical modulator , to the second data, in a manner to compensate waveform distortion to occur in the optical modulator .
A food processing device , comprising: a gear housing ; a frame arm extending from the gear housing on a first lateral side thereof to a support end; a drive screw extending between and operably coupled on respective ends thereof with the gear housing and the support end of the frame arm ; a retention hub operably coupled with the gear housing and extending generally parallel with and adjacent a portion of drive screw ; an input hub extending from the gear housing side opposite to the side from which develop both the drive screw and the retention hub and operably engaged with both the drive screw and the retention hub to drive synchronized rotational movement thereof with respect to the gear housing ; and a carrier slidably coupled with the frame arm and selectively operably engageable with the drive screw by a coupling arm extending from the carrier and moveable between a first position wherein the coupling arm is disengaged from the drive screw and a second position wherein the coupling arm is engaged with the drive screw such that the rotational movement thereof drives corresponding linear movement of the carrier along the frame arm , the carrier including at least one cutting implement thereon, wherein the carrier further includes a peeling arm . a gear housing ; a frame arm extending from the gear housing on a first lateral side thereof to a support end; a drive screw extending between and operably coupled on respective ends thereof with the gear housing and the support end of the frame arm ; a retention hub operably coupled with the gear housing and extending generally parallel with and adjacent a portion of drive screw ; an input hub extending from the gear housing side opposite to the side from which develop both the drive screw and the retention hub and operably engaged with both the drive screw and the retention hub to drive synchronized rotational movement thereof with respect to the gear housing ; and a carrier slidably coupled with the frame arm and selectively operably engageable with the drive screw by a coupling arm extending from the carrier and moveable between a first position wherein the coupling arm is disengaged from the drive screw and a second position wherein the coupling arm is engaged with the drive screw such that the rotational movement thereof drives corresponding linear movement of the carrier along the frame arm , the carrier including at least one cutting implement thereon, wherein the carrier further includes a peeling arm .
A harmonic drive comprising: a first flexible gear ; a second flexible gear disposed around the first flexible gear and coaxially with the first flexible gear ; a first ring gear (24-1) that meshes with the first flexible gear ; and a second ring gear (24-2) that meshes with the second flexible gear ; characterised in that the first flexible gear is axially wider than the second flexible gear . a first flexible gear ; a second flexible gear disposed around the first flexible gear and coaxially with the first flexible gear ; a first ring gear (24-1) that meshes with the first flexible gear ; and a second ring gear (24-2) that meshes with the second flexible gear ; characterised in that the first flexible gear is axially wider than the second flexible gear .
A method performed by a first wireless transceiver device in a device-to-device, D2D, communication network supporting wireless D2D link between the first wireless transceiver device and a second wireless transceiver device in the D2D network, the second wireless transceiver device being provided with access to a cellular communication network via the first wireless transceiver device, the method comprising: receiving (S10) capability information from the second wireless transceiver device on wireless D2D communication resources; transmitting (S20) power saving information about a power saving mode configuration based on the received capability information to the second transceiver device , the power saving information comprising information about sleep periods and active periods of the second transceiver device; and transmitting (S30) a sync signal when the first wireless transceiver device expects the second wireless transceiver device to be listening for said sync signal based at least in part on the power saving mode configuration, for re-synchronization of the second wireless transceiver device with the first wireless transceiver device . receiving (S10) capability information from the second wireless transceiver device on wireless D2D communication resources; transmitting (S20) power saving information about a power saving mode configuration based on the received capability information to the second transceiver device , the power saving information comprising information about sleep periods and active periods of the second transceiver device; and transmitting (S30) a sync signal when the first wireless transceiver device expects the second wireless transceiver device to be listening for said sync signal based at least in part on the power saving mode configuration, for re-synchronization of the second wireless transceiver device with the first wireless transceiver device .
A generator for an ultrasonic surgical instrument, the generator comprising: a control circuit configured to: apply a power level to an ultrasonic transducer to achieve a desired temperature at an ultrasonic blade, wherein the ultrasonic transducer is coupled to the ultrasonic blade by an ultrasonic waveguide; infer a temperature of the ultrasonic blade based on a voltage V g (t) signal and a current I g (t) signal applied to the ultrasonic transducer; compare the inferred temperature of the ultrasonic blade to a predetermined temperature; and adjust the power level to the ultrasonic transducer based on the comparison. apply a power level to an ultrasonic transducer to achieve a desired temperature at an ultrasonic blade, wherein the ultrasonic transducer is coupled to the ultrasonic blade by an ultrasonic waveguide; infer a temperature of the ultrasonic blade based on a voltage V g (t) signal and a current I g (t) signal applied to the ultrasonic transducer; compare the inferred temperature of the ultrasonic blade to a predetermined temperature; and adjust the power level to the ultrasonic transducer based on the comparison.
Screw-type compressor for a utility vehicle having at least one housing with at least a housing cover and with at least a rotor housing , at least one baffle plate and with at least one seal , wherein, in the assembled condition, an oil sump is present in the housing , wherein, again in the assembled condition, the seal is arranged between the housing cover and the rotor housing , and wherein, in the assembled condition, when the screw compressor is orientated horizontally and the oil sump is orientated horizontally the baffle plate is substantially parallel to the upper level of the oil sump, characterised in that the seal projects out of the oil sump and the seal at least partially separates the inside of the housing cover from the inside of the rotor housing .
A light emitting device comprising: a substrate ; a positive electrode and a negative electrode formed on said substrate; a light emitting diode connected to said positive electrode and said negative electrode; a transparent layer covering said light emitting diode; and a fluorescent material dispersed in said transparent layer, so as to excite said fluorescent material dispersed in said transparent layer by means of the light emitted by said light emitting diode to emit light of a color different from that of the light emitted by said light emitting diode; wherein said transparent layer covering said light emitting diode comprises a first transparent layer including said fluorescent material and a second transparent layer formed on said first transparent layer; said second transparent layer is formed to have a curved shape so as to form a lens on the top surface thereof; either a) the second transparent resin layer does not have the fluorescent material dispensed therein, or b) the mean concentration of the fluorescent material included in the second transparent resin layer is not higher than 1/10 the mean concentration of the fluorescent material included in the first transparent resin layer; characterised in that said first transparent layer and said second transparent layer are formed to have a coplanar face on a pair of opposed side faces of said emitting device so that said first transparent layer is exposed. a substrate ; a positive electrode and a negative electrode formed on said substrate; a light emitting diode connected to said positive electrode and said negative electrode; a transparent layer covering said light emitting diode; and a fluorescent material dispersed in said transparent layer, so as to excite said fluorescent material dispersed in said transparent layer by means of the light emitted by said light emitting diode to emit light of a color different from that of the light emitted by said light emitting diode; wherein said transparent layer covering said light emitting diode comprises a first transparent layer including said fluorescent material and a second transparent layer formed on said first transparent layer; said second transparent layer is formed to have a curved shape so as to form a lens on the top surface thereof; either a) the second transparent resin layer does not have the fluorescent material dispensed therein, or b) the mean concentration of the fluorescent material included in the second transparent resin layer is not higher than 1/10 the mean concentration of the fluorescent material included in the first transparent resin layer; characterised in that said first transparent layer and said second transparent layer are formed to have a coplanar face on a pair of opposed side faces of said emitting device so that said first transparent layer is exposed.
A pharmaceutically acceptable aqueous solution for use in a method of treating hyperhidrosis, the method comprising topically administering a therapeutically effective amount of the pharmaceutically acceptable aqueous solution to the skin of a mammal, wherein the pharmaceutically acceptable aqueous solution comprises a racemic mixture of (R)-3-((S)-2-cyclopentyl-2-hydroxy-2-phenylacetoxy)-1,1 -dimethylpyrrolidinium 4-methylbenzenesulfonate and (S)-3-((R)-2-cyclopentyl-2-hydroxy-2-phenylacetoxy)-1,1-dimethylpyrrolidinium 4-methylbenzenesulfonate, ethanol, and at least one pharmaceutically acceptable additive, wherein said additive includes citric acid, sodium citrate, or a combination thereof as a buffer.
A method for managing a cluster of interconnected nodes operatively attached to a plurality of storage devices having one or more storage objects, the method comprising: detecting a failure of a first node (200A1) hosting the one or more storage objects; determining that a candidate node (200A2) is not available for a switchover operation from the first node (200A1); identifying an alternate node (200B1) for the switchover operation, wherein during normal operation, non-volatile memory in the identified alternate node (200B1) mirrors data from the non-volatile memory of the first node (200A1); determining whether the identified alternate node (200B1) is capable of handling a load from the first node (200A1)based upon a determination that the alternate node (200B 1) has resources capable of handling a load of the failed first node (200A1) and a determination that the alternate node (200B1) is unavailable due to the alternate node (200B1) reaching an object limit of a number of objects that the alternate node (200B1) is allowed to serve; in response to determining that the identified alternate node (200B1) is capable of handling the load from the first node (200A1), performing a switchover operation to transfer ownership of the one or more storage objects from the first node (200A1) to the identified alternate node (200B1), recovering data from the non-volatile memory of the identified alternate node (200B1) to render the one or more storage objects to a consistent state, and bringing online the one or more storage objects. detecting a failure of a first node (200A1) hosting the one or more storage objects; determining that a candidate node (200A2) is not available for a switchover operation from the first node (200A1); identifying an alternate node (200B1) for the switchover operation, wherein during normal operation, non-volatile memory in the identified alternate node (200B1) mirrors data from the non-volatile memory of the first node (200A1); determining whether the identified alternate node (200B1) is capable of handling a load from the first node (200A1)based upon a determination that the alternate node (200B 1) has resources capable of handling a load of the failed first node (200A1) and a determination that the alternate node (200B1) is unavailable due to the alternate node (200B1) reaching an object limit of a number of objects that the alternate node (200B1) is allowed to serve; in response to determining that the identified alternate node (200B1) is capable of handling the load from the first node (200A1), performing a switchover operation to transfer ownership of the one or more storage objects from the first node (200A1) to the identified alternate node (200B1), recovering data from the non-volatile memory of the identified alternate node (200B1) to render the one or more storage objects to a consistent state, and bringing online the one or more storage objects.