mhurhangee/patent-ind-claim-en huggingface dataset:
Injection nozzle for a spray device for drawing in a fluid suction medium by means of a fluid propellant which is under excess pressure and for spraying an admixture of the suction medium and the propellant, having a nozzle housing, having an injection chamber which is arranged in the nozzle housing, having a jet nozzle which opens in the injection chamber for producing a propellant jet which is introduced into the injection chamber , and having a fluid suction opening for the fluid suction medium, wherein the fluid suction opening opens in an annular channel which has a flow connection to the injection chamber , characterized in that at least one pin diaphragm is provided in a suction channel upstream of the fluid suction opening , in that the nozzle housing is provided with a pin diaphragm insert which has a portion of the suction channel for drawing in the fluid suction medium and the pin diaphragm and which is releasably arranged on the nozzle housing, in that the pin diaphragm insert is connected to the nozzle housing by means of a sliding guide, in that the pin diaphragm insert is releasably arranged on an injector component which has at least the jet nozzle and the injection chamber .
An equipment for providing rectangular floor panels having machined joint portions with a mechanical locking system which locks the floor panels vertically (D1) and horizontally (D2) on at least two opposite sides, said locking system consisting of at least one flexible tongue for vertical connection and a locking strip protruding below and beyond a displacement groove for horizontal connection, wherein flexible tongues are formed into tongue blanks consisting of at least two flexible tongues , the equipment comprising: a separation unit configured to separate the flexible tongues from the blank , a pusher that pushes an end of the flexible tongue provided with a friction connection into the displacement groove , in which the flexible tongue is displaceable during locking of the floor panels , and a fixing wheel that causes a gradual fixing of the whole flexible tongue into the displacement groove as the floor panel passes the fixing wheel , wherein a relative motion between the floor panel and the fixing wheel causes a gradual fixing of the whole tongue into the groove , as the floor panel passes said at least one fixing wheel . a separation unit configured to separate the flexible tongues from the blank , a pusher that pushes an end of the flexible tongue provided with a friction connection into the displacement groove , in which the flexible tongue is displaceable during locking of the floor panels , and a fixing wheel that causes a gradual fixing of the whole flexible tongue into the displacement groove as the floor panel passes the fixing wheel , wherein a relative motion between the floor panel and the fixing wheel causes a gradual fixing of the whole tongue into the groove , as the floor panel passes said at least one fixing wheel .
An additive manufacturing apparatus in which an object is formed in a tank by selective photo-curing of a liquid resin contained in the tank through exposure to radiation, said apparatus wherein the tank has one or more ports for an introduction and evacuation of the liquid resin under a control of one or more pumps (P1, P2), said one or more pumps (P1, P2) fluidly coupling, during a printing operation and under a control of a controller , a resin-containing area of said tank to one or more sources of resin and resin storage (R1, R2, 402), wherein the one or more sources of resin and the resin storage (R1, R2, 402) are chilled, and wherein the controller comprises a processor and a memory storing instructions that when executed by the processor cause the controller to: prior to the printing operation in the tank , pump the liquid resin from the one or more sources of resin and resin storage (R1, R2, 402) into the tank via a first port in the tank so as to fill the tank with the liquid resin to an operational level; perform the printing operation in the tank ; detect a temperature of the liquid resin in the tank reaching or exceeding a threshold; in response to said detection, pause the printing operation, and pump the liquid resin in the tank to the resin storage (R1, R2, 402) so as to evacuate the tank ; and pump new resin into the tank . prior to the printing operation in the tank , pump the liquid resin from the one or more sources of resin and resin storage (R1, R2, 402) into the tank via a first port in the tank so as to fill the tank with the liquid resin to an operational level; perform the printing operation in the tank ; detect a temperature of the liquid resin in the tank reaching or exceeding a threshold; in response to said detection, pause the printing operation, and pump the liquid resin in the tank to the resin storage (R1, R2, 402) so as to evacuate the tank ; and pump new resin into the tank .
A CCR5 inhibitor for use in treating cancer in a subject, wherein the CCR5 inhibitor comprises an N-terminal portion and a C-terminal portion, wherein the N-terminal portion comprises the signature sequence QGP[P or L] and the amino acid sequence of the C-terminal portion is at least 70% identical to SEQ ID NO: 1, and wherein the CCR5 inhibitor inhibits HIV entry into cells and is selective for CCR5 over CCR1 and CCR3.
A nacelle for a wind turbine , the nacelle comprising: a housing defining an outer wall ; and, a heat transfer assembly embedded at least partially within the outer wall of the housing, the heat transfer assembly comprising a heat transfer apparatus , the heat transfer apparatus comprising a body comprising a flow path formed in an outer surface thereof and a working fluid configured to flow through the flow path , the heat transfer apparatus further comprising a plate member arranged adjacent to the flow path of the body , wherein the plate member and the outer wall of the housing of the nacelle are configured to conduct heat from the working fluid to ambient air , wherein the body is formed of a non-thermally conductive material , and wherein the plate member is formed of a thermally-conductive material so as to conduct the heat from the working fluid to the ambient air . a housing defining an outer wall ; and, a heat transfer assembly embedded at least partially within the outer wall of the housing, the heat transfer assembly comprising a heat transfer apparatus , the heat transfer apparatus comprising a body comprising a flow path formed in an outer surface thereof and a working fluid configured to flow through the flow path , the heat transfer apparatus further comprising a plate member arranged adjacent to the flow path of the body , wherein the plate member and the outer wall of the housing of the nacelle are configured to conduct heat from the working fluid to ambient air , wherein the body is formed of a non-thermally conductive material , and wherein the plate member is formed of a thermally-conductive material so as to conduct the heat from the working fluid to the ambient air .
Device for conveying thermoplastic preforms for use in a heat treatment oven , said device for conveying preforms having at least one main wheel and one auxiliary wheel , at least one of which is driven in rotation to move at least one transport means to which are movably connected a plurality of holding means each configured to interact with a preform , actuating means controlled to selectively move each of said holding means with respect to a preform - or vice versa - between an inactive position and an active holding position, characterized in that said actuating means have electric actuators which are built into said main wheel of the conveying device .
Method for operating an electric machine , wherein the method comprises a normal operating mode (ψ Normal ) and a special operating mode (ψ Special ) depending on a preset setpoint value (M Set ), and wherein the normal operating mode (ψ Normal ) comprises the steps of: - detecting an operating state, wherein, for the case where the detected operating state is a special state, the special operating mode (ψ Special ) is implemented, wherein the special operating mode (ψ Special ) comprises the steps of: - detecting the operating state, wherein, for the case where the operating state is a normal state, the normal operating mode (ψ Normal ) is implemented, characterized in that the special operating mode (ψ Special ) comprises the step of: - modulating a cyclical value (M Cycl ) onto the preset setpoint value (M Set ) . - detecting an operating state, wherein, for the case where the detected operating state is a special state, the special operating mode (ψ Special ) is implemented, - detecting the operating state, wherein, for the case where the operating state is a normal state, the normal operating mode (ψ Normal ) is implemented, - modulating a cyclical value (M Cycl ) onto the preset setpoint value (M Set ) .
A system for the recovery of heat, comprising: an industrial firing kiln for ceramic items, including a cooling section and a conveyor for conveying ceramic items, which passes through said cooling section; and a plant for recovery of heat from said kiln , comprising: at least one primary circuit that includes at least an internal heat exchanger , arranged in said cooling section of said kiln , and at least a primary process liquid that flows in said primary circuit ; characterized in that the primary circuit comprises at least two internal exchangers , a first internal heat exchanger , being arranged above said conveyor and a second internal heat exchanger being arranged below said conveyor . an industrial firing kiln for ceramic items, including a cooling section and a conveyor for conveying ceramic items, which passes through said cooling section; and a plant for recovery of heat from said kiln , comprising: at least one primary circuit that includes at least an internal heat exchanger , arranged in said cooling section of said kiln , and at least a primary process liquid that flows in said primary circuit ; characterized in that the primary circuit comprises at least two internal exchangers , a first internal heat exchanger , being arranged above said conveyor and a second internal heat exchanger being arranged below said conveyor .
Isolator switch with a drive apparatus , the drive apparatus comprising - a motor , - a gear mechanism with an output shaft and a drive shaft which can be driven by the motor in two opposed rotational directions, characterized by - a load torque lock which prevents a transmission of a torque acting on the output shaft to the drive shaft in every rotational direction, the load torque lock being arranged on the drive shaft between the motor and the gear mechanism , or the load torque lock being arranged on the output shaft downstream of the gear mechanism . - a motor , - a gear mechanism with an output shaft and a drive shaft which can be driven by the motor in two opposed rotational directions, characterized by - a load torque lock which prevents a transmission of a torque acting on the output shaft to the drive shaft in every rotational direction, the load torque lock being arranged on the drive shaft between the motor and the gear mechanism , or the load torque lock being arranged on the output shaft downstream of the gear mechanism .
An extraction unit for extracting cartridges (1a;1b) of two different heights (ha;hb) comprising a seat (11,12,13;15) for receiving any of said cartridges (1a;1b) for extraction thereof in the seat, the seat being delimited by a first part and second part that are relatively movable between a cartridge extraction position and a cartridge loading and/or ejection position, the first part having a first portion and a second portion that are relatively movable, the seat , in particular the first part , having a depth detecting arrangement , such as a detecting arrangement comprising a control unit connected to sensor via a connection , characterised in that the first portion and the second portion are relatively movable to delimit a cavity having selectively: - a first depth (da) for receiving a cartridge of the first height (ha); and - a second depth (db) for receiving a cartridge of the second height (hb), the depth detecting arrangement being configured to detect a relative position of the first portion and the second portion to determine whether the cavity has at least one of the first and second depths (da,db), optionally the depth detecting arrangement , in particular a control unit thereof, being arranged to adjust an extraction parameter such as a volume and/or temperature of liquid, e.g. water, to be circulated into the seat (11,12,13;15), said parameter depending on the detection of the relative position of the first and second portions and/or on an absence of such a detection. - a first depth (da) for receiving a cartridge of the first height (ha); and - a second depth (db) for receiving a cartridge of the second height (hb),
A system comprising: a first variable frequency generator VFG including a generator configured to conduct alternating current to a first rectifier configured to convert alternating current from the first VFG to direct current and drive it to an HVDC Bus Network; a variable frequency second generator including a second generator configured to conduct alternating current to a second rectifier configured to convert alternating current from the second generator to direct current and direct it to the HVDC Bus Network; a VFG control unit operatively connected to the generator configured to control the VFG input speed and regulation; and a second generator control unit operatively connected to the second generator and the HVDC Bus Network configured to control the second generator regulation; wherein the VFG is operatively connected to a low-pressure spool gearbox spool engine of an aircraft; and characterised by a speed correcting gearbox operatively connected to the first VFG configured to align generator frequency to the second generator frequency, wherein the speed-correcting gearbox is located between the VFG and the low-pressure gearbox. a first variable frequency generator VFG including a generator configured to conduct alternating current to a first rectifier configured to convert alternating current from the first VFG to direct current and drive it to an HVDC Bus Network; a variable frequency second generator including a second generator configured to conduct alternating current to a second rectifier configured to convert alternating current from the second generator to direct current and direct it to the HVDC Bus Network; a VFG control unit operatively connected to the generator configured to control the VFG input speed and regulation; and a second generator control unit operatively connected to the second generator and the HVDC Bus Network configured to control the second generator regulation; wherein the VFG is operatively connected to a low-pressure spool gearbox spool engine of an aircraft; and characterised by a speed correcting gearbox operatively connected to the first VFG configured to align generator frequency to the second generator frequency, wherein the speed-correcting gearbox is located between the VFG and the low-pressure gearbox.
A screen for a vibratory shaker with a plurality of screens, the screen having a screen frame having a plurality of openings and including: a first screen insert disposed in a first opening of the plurality of openings of the screen frame, the first screen insert having a screen surface positioned at the first height above the screen frame ; a second screen insert disposed in a second opening of the plurality of openings of the screen frame , the second screen insert having a screen surface positioned at a second height, the second height being different from the first height; and a mesh disposed on the first and second screen surfaces. a first screen insert disposed in a first opening of the plurality of openings of the screen frame, the first screen insert having a screen surface positioned at the first height above the screen frame ; a second screen insert disposed in a second opening of the plurality of openings of the screen frame , the second screen insert having a screen surface positioned at a second height, the second height being different from the first height; and a mesh disposed on the first and second screen surfaces.
A method for handling of drinking bottles provided with nipples in an automatic bottle wash-up line, in which the bottles with nipples arranged in a basket adapted for this purpose are placed on a conveyor for transport of said basket through a bottle wash-up line, wherein the nipples on all the bottles in the basket are removed from the bottles in one operation by sealingly attaching a mouthpiece to each nipple , whereupon the nipples are removed from the respective bottle by a blow of compressed air through said mouthpiece, and are lifted up from the bottles, the basket is turned upside down with the bottles retained in the basket, the nipples are placed on the back side of the basket, the basket is inserted into a washing machine wherein bottles and nipples are washed and dried, the nipples are lifted up from the basket, the basket is turned back into the original position with the bottles having their bottle mouth upwards, the bottles are filled with a liquid, and then the nipples are attached on the bottles .
A method of manufacturing an aircraft wing tip , the method comprising the following steps: (a) providing an upper cover comprising a plurality of lugs ; (b) providing a lower cover comprising a plurality of lugs ; b1) holding the upper wing cover and the lower wing cover in position relative to each other; (c) measuring the distance between a lug on the upper cover and corresponding lug on the lower cover with an optical measuring apparatus ; (d) selecting, from a plurality of different sized links , a link suitably sized to correspond to the measured distance between the lug on the upper cover and corresponding lug on the lower cover with an electronic selection apparatus ; (e) connecting the selected link to the lug on the upper cover and corresponding lug on the lower cover with a machine assembly apparatus ; and (f) repeating steps (c) to (e) such that each lug on the upper cover is joined to a corresponding lug on the lower cover. (a) providing an upper cover comprising a plurality of lugs ; (b) providing a lower cover comprising a plurality of lugs ; b1) holding the upper wing cover and the lower wing cover in position relative to each other; (c) measuring the distance between a lug on the upper cover and corresponding lug on the lower cover with an optical measuring apparatus ; (d) selecting, from a plurality of different sized links , a link suitably sized to correspond to the measured distance between the lug on the upper cover and corresponding lug on the lower cover with an electronic selection apparatus ; (e) connecting the selected link to the lug on the upper cover and corresponding lug on the lower cover with a machine assembly apparatus ; and (f) repeating steps (c) to (e) such that each lug on the upper cover is joined to a corresponding lug on the lower cover.
A molding method of a liquid elastomer for molding a molded article constructed by the liquid elastomer by using a mold , wherein said mold is a mold for an injection molding, a plurality of product cavity spaces are provided side by side in a mold clamping and mold opening direction of said mold , wherein a plurality of molded articles are simultaneously molded by using said mold ,wherein said mold is provided with a sprue , runners and gates which are communicated with said plurality of product cavity spaces , and wherein said runners are provided with orthogonal runner portions extended in a direction which is orthogonal to the mold clamping and mold opening direction of said mold from said sprue, and parallel runner portions extended in a direction which is parallel to the mold clamping and mold opening direction of said mold from said orthogonal runner portions , wherein said mold is a metal mold , wherein said parallel runner portions are arranged in an outer peripheral side of said plurality of product cavity spaces , and wherein said metal mold is structured such as to mold the molded article in a state in which an insert part is set, and said molded article is integrally molded in relation to said insert part .
A monitoring and protection system comprising: a plurality of input/output, I/O, channels communicatively coupled to at least one sensor sensing machinery operations; an analog-to-digital converter, ADC, communicatively coupled to the plurality of I/O channels , wherein the ADC is configured to receive at least one signal from the plurality of I/O channels communicated by the at least one sensor and is configured to convert the at least one signal to a digital data; a processor communicatively coupled to the ADC , wherein the processor is configured to select at least one or more desired turbomachine system states correlative with machinery operations based on the digital data; said turbomachine system being configured to perform the machinery operations; the monitoring and protection system being characterized by comprising an excitation system communicatively coupled to the ADC , wherein the excitation system is configured to excite an internal signal from a digital signal synthesis DSS source for a selected system state as a replacement for the at least one signal, wherein the DSS source is comprised in the monitoring and protection system ; and wherein the processor is configured to process the excited signal in lieu of a sensor signal transmitted via the at least one sensor to derive one or more output signals, and monitor and log the behavior of a component of the monitoring and protection system when deriving the one or more output signals.. a plurality of input/output, I/O, channels communicatively coupled to at least one sensor sensing machinery operations; an analog-to-digital converter, ADC, communicatively coupled to the plurality of I/O channels , wherein the ADC is configured to receive at least one signal from the plurality of I/O channels communicated by the at least one sensor and is configured to convert the at least one signal to a digital data; a processor communicatively coupled to the ADC , wherein the processor is configured to select at least one or more desired turbomachine system states correlative with machinery operations based on the digital data; said turbomachine system being configured to perform the machinery operations; the monitoring and protection system being characterized by comprising an excitation system communicatively coupled to the ADC , wherein the excitation system is configured to excite an internal signal from a digital signal synthesis DSS source for a selected system state as a replacement for the at least one signal, wherein the DSS source is comprised in the monitoring and protection system ; and wherein the processor is configured to process the excited signal in lieu of a sensor signal transmitted via the at least one sensor to derive one or more output signals, and monitor and log the behavior of a component of the monitoring and protection system when deriving the one or more output signals..