mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling an injection molding machine and a mold forming a mold cavity, the injection molding machine being controlled according to an injection cycle, the method comprising: analyzing a model of at least one of the injection molding machine, the mold, and a molten material, to determine initial values for one or more control parameters of the injection molding machine; executing a run of injection cycles at the injection molding machine, wherein during each injection cycle of the run, the injection molding machine injects the molten material into a cavity of the mold according to an injection pattern; measuring operation of the injection molding machine during a particular injection cycle of the run of injection cycles; determining one or more operational parameters exceed a threshold; and upon determining that the one or more operational parameters exceed the threshold, adjusting the one or more control parameters for subsequent injection cycles of the run of injection cycles; wherein the determination that the one or more operational parameters exceed the threshold includes combining the operational parameters to determine a metric indicative of a viscosity of the molten material and comparing the metric to the threshold. analyzing a model of at least one of the injection molding machine, the mold, and a molten material, to determine initial values for one or more control parameters of the injection molding machine; executing a run of injection cycles at the injection molding machine, wherein during each injection cycle of the run, the injection molding machine injects the molten material into a cavity of the mold according to an injection pattern; measuring operation of the injection molding machine during a particular injection cycle of the run of injection cycles; determining one or more operational parameters exceed a threshold; and upon determining that the one or more operational parameters exceed the threshold, adjusting the one or more control parameters for subsequent injection cycles of the run of injection cycles; wherein the determination that the one or more operational parameters exceed the threshold includes combining the operational parameters to determine a metric indicative of a viscosity of the molten material and comparing the metric to the threshold.
A suspension module comprising: a subframe assembly that includes: a lower subframe that pivotally supports a lower control arm ; first and second upper control arm mounting plates that pivotally support first and second upper control arms , respectively, wherein the first and second upper control arm mounting plates are mounted to the lower subframe and the first and second upper control arm mounting plates each have a slot ; characterised in that the suspension module further comprises: first and second side plates that are disposed on and fixedly coupled to lateral outboard sides of the first and second upper control arm mounting plates , respectively, wherein the first and second side plates each have a pair of upper control arm receiving slots that are spaced apart from each other and are aligned with a corresponding slot and the first and second upper control arms are received in the slots of the first and second upper control arm mounting plates , respectively, and the upper control arm receiving slots of the first and second side plates , respectively; and a cross beam that extends from the first side plate to the second side plate . a lower subframe that pivotally supports a lower control arm ; first and second upper control arm mounting plates that pivotally support first and second upper control arms , respectively, wherein the first and second upper control arm mounting plates are mounted to the lower subframe and the first and second upper control arm mounting plates each have a slot ; characterised in that the suspension module further comprises: first and second side plates that are disposed on and fixedly coupled to lateral outboard sides of the first and second upper control arm mounting plates , respectively, wherein the first and second side plates each have a pair of upper control arm receiving slots that are spaced apart from each other and are aligned with a corresponding slot and the first and second upper control arms are received in the slots of the first and second upper control arm mounting plates , respectively, and the upper control arm receiving slots of the first and second side plates , respectively; and a cross beam that extends from the first side plate to the second side plate . first and second side plates that are disposed on and fixedly coupled to lateral outboard sides of the first and second upper control arm mounting plates , respectively, wherein the first and second side plates each have a pair of upper control arm receiving slots that are spaced apart from each other and are aligned with a corresponding slot and the first and second upper control arms are received in the slots of the first and second upper control arm mounting plates , respectively, and the upper control arm receiving slots of the first and second side plates , respectively; and a cross beam that extends from the first side plate to the second side plate .
A butterfly valve for controlling gas flow, the butterfly valve comprising: a valve body , the valve body defining a bore and including, at least, a first wall and a second wall , the first wall and the second wall being substantially parallel with respect to one another; a shaft disposed substantially perpendicular to the first and second walls and configured for rotatable motion with respect to the valve body, the shaft including a first portion , a second portion , and a center portion , the first portion including a shoulder and intersecting with the first wall , the second portion intersecting with the second wall , and the center portion disposed within the bore ; a disk housed within the bore, operatively coupled with the center portion of the shaft, and configured to control gas flow through the bore based on a rotational position of the shaft relative to the valve body ; a ball bearing operatively coupled with the first portion of the shaft and disposed proximate to the first wall, the ball bearing including a ball and a race ; a one or more O-rings disposed proximate to the ball bearing, the one or more O-rings being configured to prevent gas leakage from the butterfly valve; and a spring disposed proximate to the second wall and the second portion of the shaft and configured to provide an axial force on the shaft, the axial force configured to press the shoulder of the first portion of the shaft against the race of the ball bearing to prevent an outer edge of the disk from contacting an inner wall of the bore . a valve body , the valve body defining a bore and including, at least, a first wall and a second wall , the first wall and the second wall being substantially parallel with respect to one another; a shaft disposed substantially perpendicular to the first and second walls and configured for rotatable motion with respect to the valve body, the shaft including a first portion , a second portion , and a center portion , the first portion including a shoulder and intersecting with the first wall , the second portion intersecting with the second wall , and the center portion disposed within the bore ; a disk housed within the bore, operatively coupled with the center portion of the shaft, and configured to control gas flow through the bore based on a rotational position of the shaft relative to the valve body ; a ball bearing operatively coupled with the first portion of the shaft and disposed proximate to the first wall, the ball bearing including a ball and a race ; a one or more O-rings disposed proximate to the ball bearing, the one or more O-rings being configured to prevent gas leakage from the butterfly valve; and a spring disposed proximate to the second wall and the second portion of the shaft and configured to provide an axial force on the shaft, the axial force configured to press the shoulder of the first portion of the shaft against the race of the ball bearing to prevent an outer edge of the disk from contacting an inner wall of the bore .
A covered heat metering device comprising a heat metering device having at least one resting face (F A ) and an opposite face (Fo) opposite the resting face (F A ), said heat metering device comprising a container enclosing internal components, said container consisting of several separable and joinable parts, one of the said parts comprising or constituting the resting face (F A ), the other part, or the set of the other parts, comprising or constituting an exposed part of the container that is arranged around the internal components of the heat metering device , characterized by the fact that it comprises a removable cover (R) that covers at least a part of said heat metering device except at least the resting face (F A ) thereof, said removable cover (R) can be coupled with the container of the device by connection means present on the cover and/or by means of the shape of the cover, so that said cover can be applied to said heat metering device even when the latter is in use, i.e. when the latter is applied to a radiant terminal unit.
A method of making a photoelectrode for solar water splitting, comprising: growing nanowires on a first surface of a transparent, conducting substrate, and growing nanowires on a second surface of the substrate, the second surface substantially opposite the first surface, characterised in that the nanowires are III-nitride nanowires and the transparent, conductive substrate is one or more of indium tin oxide, fluorine-doped tin oxide, and aluminum-doped zinc oxide. growing nanowires on a first surface of a transparent, conducting substrate, and growing nanowires on a second surface of the substrate, the second surface substantially opposite the first surface, characterised in that the nanowires are III-nitride nanowires and the transparent, conductive substrate is one or more of indium tin oxide, fluorine-doped tin oxide, and aluminum-doped zinc oxide.
A system comprising: a wearable electronic device configured to be worn by a user comprising a housing and an augmented reality display integrally formed with or associated with the housing ; and an external sub-dermal imaging device for providing an image of sub-dermal structures in close proximity to an invasive access site, wherein the device is configured to process images obtained by the sub-dermal imaging device to determine a location of a desired anatomical structure for an invasive access procedure and to display within the user's field of view of the invasive access site a virtual trace of the location to the user via the augmented reality display . a wearable electronic device configured to be worn by a user comprising a housing and an augmented reality display integrally formed with or associated with the housing ; and an external sub-dermal imaging device for providing an image of sub-dermal structures in close proximity to an invasive access site, wherein the device is configured to process images obtained by the sub-dermal imaging device to determine a location of a desired anatomical structure for an invasive access procedure and to display within the user's field of view of the invasive access site a virtual trace of the location to the user via the augmented reality display .
Line element for exhaust pipes and the like, comprising - an inner element (IE, 120) in the form of a stripwound hose; - an outer element (AE, 110) in the form of a corrugated bellows, a wound bellows or a membrane bellows, which surrounds the inner element and contacts it at least locally; - a sliding layer containing a temperature-resistant anti-friction lacquer, which is arranged in the contact zone on the inner element (IE) and/or on the outer element (AE), wherein the sliding layer contains or consists of at least one of the following materials: PTFE, titanium dioxide (TiO2), graphite, zinc sulfide, (metal) phosphate, boron nitride, silanes, silicon, silicon dioxide, tungsten disulfide (WS 2 ), aramid fibers, glass fibers, polymer composites. - an inner element (IE, 120) in the form of a stripwound hose; - an outer element (AE, 110) in the form of a corrugated bellows, a wound bellows or a membrane bellows, which surrounds the inner element and contacts it at least locally; - a sliding layer containing a temperature-resistant anti-friction lacquer, which is arranged in the contact zone on the inner element (IE) and/or on the outer element (AE),
Method for controlling a session for providing a service between a first and a second entity, at least one data stream being associated with said session, said method comprising, following the transmission of a session control message by the first entity to the second entity: - insertion (E7, F11), into said session control message, by an entity referred to as the primary control entity and located on a network path between the two entities, of a session control policy to be implemented in the event of inactivity of at least one data stream associated with said session, said session control policy having been obtained (E6, F11) by said primary control entity from a session control policy inserted by the first entity into said session control message, or having been generated (E6) by said primary control entity depending on a type of said service, said inactivity of said at least one data stream consisting of non-establishment or of premature release of said at least one data stream; - obtainment (E12, F13), from said session control message or from a response of the second entity to said session control message, of said session control policy by an entity referred to as the secondary control entity , which is distinct from the primary control entity, located on the network path between the first and second entities and responsible for implementing said session control policy; and - on detection (E15, F15) of inactivity of said data stream, implementation (E17, F17) of said session control policy by the secondary control entity. - insertion (E7, F11), into said session control message, by an entity referred to as the primary control entity and located on a network path between the two entities, of a session control policy to be implemented in the event of inactivity of at least one data stream associated with said session, said session control policy having been obtained (E6, F11) by said primary control entity from a session control policy inserted by the first entity into said session control message, or having been generated (E6) by said primary control entity depending on a type of said service, said inactivity of said at least one data stream consisting of non-establishment or of premature release of said at least one data stream; - obtainment (E12, F13), from said session control message or from a response of the second entity to said session control message, of said session control policy by an entity referred to as the secondary control entity , which is distinct from the primary control entity, located on the network path between the first and second entities and responsible for implementing said session control policy; and - on detection (E15, F15) of inactivity of said data stream, implementation (E17, F17) of said session control policy by the secondary control entity.
Motion sensor having a sensor unit , which is designed to acquire motion data, and an encryption unit , which is designed to encrypt motion data acquired by the sensor unit by means of a cryptographic key stored in the encryption unit , the motion sensor being designed to be connected to a control unit of a vehicle, characterized in that the motion sensor is designed to store information when the end of life of the motion sensor has been reached, wherein the storage of the information either clearly marks the cryptographic keys stored in the motion sensor and the data encrypted with the cryptographic key as invalid or erases the cryptographic keys stored in the motion sensor and the data encrypted with the cryptographic key from the motion sensor , with the result that, after the information has been stored, it is no longer possible to access the cryptographic keys and the data encrypted by the cryptographic keys, and in that the motion sensor is designed to store the information either when a corresponding software command has been received from the control unit or when the motion sensor is disconnected from the control unit . a sensor unit , which is designed to acquire motion data, and an encryption unit , which is designed to encrypt motion data acquired by the sensor unit by means of a cryptographic key stored in the encryption unit , the motion sensor being designed to be connected to a control unit of a vehicle, characterized in that the motion sensor is designed to store information when the end of life of the motion sensor has been reached, wherein the storage of the information either clearly marks the cryptographic keys stored in the motion sensor and the data encrypted with the cryptographic key as invalid or erases the cryptographic keys stored in the motion sensor and the data encrypted with the cryptographic key from the motion sensor , with the result that, after the information has been stored, it is no longer possible to access the cryptographic keys and the data encrypted by the cryptographic keys, and in that the motion sensor is designed to store the information either when a corresponding software command has been received from the control unit or when the motion sensor is disconnected from the control unit .
Luminescent upconversion nanoparticles of formula MLnF 4 :RE +3 , where M is an alkaline metal, Ln is a lanthanide element or an analog thereof and RE +3 is an ion of rare earth elements or combinations thereof, characterized in that said nanoparticles comprise organic ligands bound to the surface thereof by means of covalent bonds; wherein said organic ligands are selected from 2-chloroacetamide, 2-bromoacetamide, 2-chloroacetic acid, 2-bromoacetic acid and ethyl 2-chloroacetate.
A battery module, comprising: a lower case; a plurality of battery cells sequentially stacked and received in the lower case; and a heat conducting plate, wherein a boss is formed on the lower case; the heat conducting plate is provided with a receiving hole; the boss fits in the receiving hole, and a part or an entirety of the boss is fixed in the receiving hole; and wherein the receiving hole is a tapered hole; a surface of the boss facing away from the plurality of battery cells is flush with a surface of the heat conducting plate facing away from the plurality of battery cells. a lower case; a plurality of battery cells sequentially stacked and received in the lower case; and a heat conducting plate, wherein a boss is formed on the lower case; the heat conducting plate is provided with a receiving hole; the boss fits in the receiving hole, and a part or an entirety of the boss is fixed in the receiving hole; and wherein the receiving hole is a tapered hole; a surface of the boss facing away from the plurality of battery cells is flush with a surface of the heat conducting plate facing away from the plurality of battery cells.
Ensemble comprising a part of a wind turbine tower, a counterpart and an arrangement to position the part of the wind turbine tower in respect to the counterpart during installation, the arrangement comprising - a sensor to sense a position of the part of the tower, - means to transmit sensor information to a place in a certain distance from the sensor , - means to evaluate the sensor data, and - means to influence the position of the part of the tower in respect to the counterpart according to the evaluation of the sensor data, wherein the sensor comprises a magnet to attach the sensor to the part of the tower magnetically. - a sensor to sense a position of the part of the tower, - means to transmit sensor information to a place in a certain distance from the sensor , - means to evaluate the sensor data, and - means to influence the position of the part of the tower in respect to the counterpart according to the evaluation of the sensor data,
An apparatus for depositing a food product, the apparatus comprising: a nozzle having a chamber for receiving a food product under a positive pressure, the chamber being provided with a food product outlet , the outlet being provided with a first sealing surface; a valve needle comprising a second sealing surface and being movable relative to the outlet between a closed position in which the first sealing surface is proximate to the second sealing surface, and to one of a plurality of discrete open positions relative to the outlet; and an actuator configured to set the position of the valve needle relative to the outlet, the actuator operable to set the position of the valve needle to the closed position and any one of the plurality of open positions for depositing the food product, wherein the nozzle is further configured to rotate in use to change the direction of flow of a food product being deposited by the apparatus. a nozzle having a chamber for receiving a food product under a positive pressure, the chamber being provided with a food product outlet , the outlet being provided with a first sealing surface; a valve needle comprising a second sealing surface and being movable relative to the outlet between a closed position in which the first sealing surface is proximate to the second sealing surface, and to one of a plurality of discrete open positions relative to the outlet; and an actuator configured to set the position of the valve needle relative to the outlet, the actuator operable to set the position of the valve needle to the closed position and any one of the plurality of open positions for depositing the food product, wherein the nozzle is further configured to rotate in use to change the direction of flow of a food product being deposited by the apparatus.
A method for preparing cannabidiol by separation and purification using high-speed countercurrent chromatography, comprising: subjecting industrial hemp flowers or leaves as raw materials to alcohol extraction and concentration, water precipitation, and vacuum rotary evaporation to obtain a crude hemp extract; dissolving the crude hemp extract in ethanol, then injecting it into a macroporous resin, followed by gradient elution to collect an elution section rich in cannabidiol and vacuum rotary evaporation to obtain a crude extract of cannabidiol; performing separation and purification using high-speed countercurrent chromatography with n-hexane-ethyl acetate-methanol-water or a tri-solvent system composed of n-hexane-methanol-water as a separation solvent system to collect cannabidiol fractions, recover the solvent, followed by post-treatment to obtain cannabidiol. subjecting industrial hemp flowers or leaves as raw materials to alcohol extraction and concentration, water precipitation, and vacuum rotary evaporation to obtain a crude hemp extract; dissolving the crude hemp extract in ethanol, then injecting it into a macroporous resin, followed by gradient elution to collect an elution section rich in cannabidiol and vacuum rotary evaporation to obtain a crude extract of cannabidiol; performing separation and purification using high-speed countercurrent chromatography with n-hexane-ethyl acetate-methanol-water or a tri-solvent system composed of n-hexane-methanol-water as a separation solvent system to collect cannabidiol fractions, recover the solvent, followed by post-treatment to obtain cannabidiol.
A multilayer structure comprising a base (X) and a layer (Y) stacked on the base (X), wherein the layer (Y) contains an aluminum-containing compound (A), an organic phosphorus compound (BO), and a polymer (F) having an ether bond and having no glycosidic bond, wherein the aluminum-containing compound (A) is a compound (Ab) comprising a reaction product (D) of an aluminum-containing metal oxide (Aa) and an inorganic phosphorus compound (BI).