mhurhangee/ep-ind-claims huggingface dataset:
A fuel injector with a nozzle (16; 216), the nozzle comprising: an outer air swirler (24; 224) having an outer surface and an inner surface and a forward end and an aft end; and a prefilmer (28; 128; 228) located concentrically within the outer air swirler (24; 224), characterized by the outer air swirler having a groove (34; 234) on the inner surface; and the prefilmer (28; 128; 228) having at least one detent finger (36; 136; 236) to engage the groove on the inner surface of the outer air swirler (24; 224). an outer air swirler (24; 224) having an outer surface and an inner surface and a forward end and an aft end; and a prefilmer (28; 128; 228) located concentrically within the outer air swirler (24; 224), characterized by the outer air swirler having a groove (34; 234) on the inner surface; and the prefilmer (28; 128; 228) having at least one detent finger (36; 136; 236) to engage the groove on the inner surface of the outer air swirler (24; 224).
An aileron assembly comprising an aileron body, a first spoileron configured to extend from a first surface of the aileron body, a second spoileron configured to extend from a second surface of the aileron body, and a hinge assembly configured to move the first and second spoilerons (64, 65) between a retracted position, in which the first and second spoilerons (64, 65) are disposed in the aileron body, and a deployed position, in which the first and second spoilerons (64, 65) extend from the aileron body, the hinge assembly comprising a support element on the aileron body, a first hinge element on the first spoileron, a second hinge element on the second spoileron, characterised in that the hinge assembly further comprises an actuating shaft slidably mounted to the support element and configured to slide along its longitudinal axis relative to the support element, and in that the first hinge element is engaged with the actuating shaft so that the first hinge element is urged to rotate about the actuating shaft in one direction when the actuating shaft is urged to slide along its longitudinal axis, and the second hinge element is engaged with the actuating shaft so that the second hinge element is urged to rotate about the actuating shaft in an opposing direction to the first hinge element when the actuating shaft is urged to slide along its longitudinal axis such that the first and second spoilerons (64, 65) are urged to rotate in opposing directions about said longitudinal axis.
A multirotor aircraft that comprises a chassis, at least three engines, wherein each of them is equipped with a propeller, characterized in that the multirotor aircraft further comprises at least one free wing; in that said free wing is attached to said chassis by an axial connection so that an angle between the free wing and the chassis can change due to flow of air over said free wing; and in that said free wing is configured to rotate freely around said axial connection.
Actuation device for a flap mounted moveably on a component between a closed position and an opened position, in particular for a flap mounted moveably on a housing of an automobile, comprising: - a first actuation part and a second actuation part which are designed to engage with one another in a movement direction, wherein the first actuation part is to be fastened on the flap and moved with the flap upon a movement of the flap between the closed position and the opened position, and wherein the second actuation part is to be fastened on the component, - locking means with a locking reception provided on the first or second actuation part and a locking element provided on the other of first or second actuation part, wherein the locking element engages in the locking reception during engagement of the actuation parts and thus holds the actuation parts together in a locking position, wherein the locking reception has sufficient size so that in the locking position a relative movement between the locking element and the locking reception in the movement direction of the actuation parts and thereby a corresponding relative movement of the actuation parts in their movement direction with regard to one another is possible, and - a sensor device which is designed to detect a relative movement between the locking element and the locking reception in the movement direction in the locking position, wherein the sensor device comprises a hall sensor, which detects the movement of a magnet which is moved during a relative movement between the locking element and the locking reception in the movement direction. - a first actuation part and a second actuation part which are designed to engage with one another in a movement direction, wherein the first actuation part is to be fastened on the flap and moved with the flap upon a movement of the flap between the closed position and the opened position, and wherein the second actuation part is to be fastened on the component, - locking means with a locking reception provided on the first or second actuation part and a locking element provided on the other of first or second actuation part, wherein the locking element engages in the locking reception during engagement of the actuation parts and thus holds the actuation parts together in a locking position, wherein the locking reception has sufficient size so that in the locking position a relative movement between the locking element and the locking reception in the movement direction of the actuation parts and thereby a corresponding relative movement of the actuation parts in their movement direction with regard to one another is possible, and - a sensor device which is designed to detect a relative movement between the locking element and the locking reception in the movement direction in the locking position, wherein the sensor device comprises a hall sensor, which detects the movement of a magnet which is moved during a relative movement between the locking element and the locking reception in the movement direction.
A control device for an electric motor in which windings of respective phases are independently connected, the control device for the electric motor comprising a zero-phase current calculation unit for calculating a zero-phase current (i 0) based on detection values of currents (i u, i v, i w) of the respective phases flowing in the electric motor and a position of a rotor (θ) of the electric motor, a current command calculation unit that generates dq-axis current command values (i d *, i q *) wherein a current flowing in the electric motor is controlled based on said dq-axis current command values (i d *, i q *) calculated from a torque command value (T*) and an angular velocity value (ω) of the electric motor such that the absolute value of the sum of the dq-axis drive current command values (i d *, i q *) and the zero-phase current value (i 0) is equal to or lower than a predetermined current value (i max), and a current command correction unit that corrects the dq-axis current command values (i d *, i q *), generated by the current command calculation unit, based on the zero-phase current (i 0) calculated by the zero-phase current calculation unit.
Pyrolytic gas generator for energy producing clean useful gas from biomass, particularly wood, oil seeds or the like, characterised in that the gas generator is provided in multi-chambered construction, wherein the gas producer is provided with a support burner, which can supply heat from outside to a gasification channel during gasification of the biomass, a pre-pyrolysis pipe upstream of the gasification channel and an ash discharge downstream of the gasification channel, wherein the generated gas is re-gasified in the gasification channel, whilst the material to be gasified is mechanically transported from a material container to the ash discharge, wherein the gasification material is dried and pre-pyrolysed in the pre-pyrolysis pipe and which then subsequently passes through a filling shaft into the gasification channel, wherein arranged below the gasification channel is a lower chamber into which the support burner delivers heat, wherein the support burner is arranged at the same end of the gasification channel as that at which the filling shaft is also arranged, wherein arranged at the end of the lower chamber remote from the support burner is a transfer to an upper chamber which surrounds the gasification channel in the upper region, whereby the upper chamber and the lower chamber completely surround the gasification chamber and wherein a support realised at least in sections is provided under the gasification channel and prevents distortion and warping of the gasification channel.
A user interface element for delivering breathing gas to a user, comprising: - a first orifice for receiving a first flow of gas, and one or more second orifices for letting a second flow of gas out of the user interface element, wherein the first orifice and the one or more second orifices are positioned relative to each other such that during use of the user interface element the second flow of gas flows over and cools a skin surface of the user and out of the user interface element through the one or more second orifices, wherein the user interface element includes a shell member structured to receive a cushion, the first orifice and the one or more second orifices being provided in the shell member, wherein the shell member includes a plurality of flow segments, each of the flow segments including a chamber having an inlet located at a first end of the shell member and one or more open orifices spaced from the inlet and located at a second end of the shell member opposite to the first end, each of the one or more open orifices being one of the second orifices, wherein the first end of the shell member is structured to be coupled to the cushion such that an inner chamber of the cushion is in fluid communication with each of the flow segments, and wherein in response to the first flow of gas being received through the first orifice, the user interface element is structured to cause at least a part of the second flow of gas to flow through each of the flow segments from the inlet of the flow segment to the one or more open orifices of the flow segment, characterised in that the one or more open orifices are smaller than the inlet. - a first orifice for receiving a first flow of gas, and one or more second orifices for letting a second flow of gas out of the user interface element, wherein the first orifice and the one or more second orifices are positioned relative to each other such that during use of the user interface element the second flow of gas flows over and cools a skin surface of the user and out of the user interface element through the one or more second orifices,
System for filtering and storing data comprising: a filtering component; a filter management device; and a storing unit, wherein the filtering component is adapted to receive data from a data generating device and to receive configuration data regarding at least one data stream and/or at least one data structure of the received data from the filter management device, and to send at least part of the received data to the storing unit, and to send at least a part of the received data to a backend by using configuration data, wherein the filter management device is adapted to send predetermined configuration files to the filtering component upon at least a change of at least one data structure or at least one transmission method of the data received by the filtering component and/or a change of the data generating device and/or a change of the application run on the data generating device. a filtering component; a filter management device; and a storing unit, wherein the filtering component is adapted to receive data from a data generating device and to receive configuration data regarding at least one data stream and/or at least one data structure of the received data from the filter management device, and to send at least part of the received data to the storing unit, and to send at least a part of the received data to a backend by using configuration data, wherein the filter management device is adapted to send predetermined configuration files to the filtering component upon at least a change of at least one data structure or at least one transmission method of the data received by the filtering component and/or a change of the data generating device and/or a change of the application run on the data generating device.
A method performed by a user equipment, UE, for handling a Conditional primary secondary cell change procedure, CPC, of a secondary cell for the UE, the method comprising: receiving from a master node, a message of a first radio access technology, RAT, comprising a reconfiguration message for a CPC reconfiguration of the secondary cell of a second RAT, wherein the first RAT is different than the second RAT; transmitting to the master node, a first complete message of the second RAT embedded in another message of the first RAT, wherein the first complete message indicates that the UE is able to comply to the CPC reconfiguration; and upon fulfilment of a condition of the CPC reconfiguration, transmitting to the master node, a second complete message of the second RAT embedded in a radio resource control, RRC, message of the first RAT. receiving from a master node, a message of a first radio access technology, RAT, comprising a reconfiguration message for a CPC reconfiguration of the secondary cell of a second RAT, wherein the first RAT is different than the second RAT; transmitting to the master node, a first complete message of the second RAT embedded in another message of the first RAT, wherein the first complete message indicates that the UE is able to comply to the CPC reconfiguration; and upon fulfilment of a condition of the CPC reconfiguration, transmitting to the master node, a second complete message of the second RAT embedded in a radio resource control, RRC, message of the first RAT.
A pipe setting structure comprising: a back housing; and a cover attached to the back housing, wherein the back housing has a first recess and a second recess, the first recess being recessed from a surface of the back housing and including a first back portion, the second recess being adjacent to the first recess and recessed from the surface of the back housing, and including a second back portion, wherein the second back portion is located closer to the surface of the back housing than the first back portion, wherein a step is provided between the first back portion and the second back portion, and wherein the cover includes a rib, characterized in that the rib projects into the first recess, while covering the first recess and the second recess. a back housing; and a cover attached to the back housing, wherein the back housing has a first recess and a second recess, the first recess being recessed from a surface of the back housing and including a first back portion, the second recess being adjacent to the first recess and recessed from the surface of the back housing, and including a second back portion, wherein the second back portion is located closer to the surface of the back housing than the first back portion, wherein a step is provided between the first back portion and the second back portion, and wherein the cover includes a rib, characterized in that the rib projects into the first recess, while covering the first recess and the second recess.
A method for testing notification appliances in an alarm system, the method comprising: actuating an input device on a notification appliance a first time, whereby a notification feature of the notification appliance is activated for a test period; automatically entering a waiting period after expiration of the test period; actuating the input device on the notification appliance a second time during the waiting period, whereby a pass signal is automatically transmitted from the notification appliance; and automatically transmitting a fail signal from the notification appliance after expiration of the waiting period if the input device was not actuated a second time during the waiting period. actuating an input device on a notification appliance a first time, whereby a notification feature of the notification appliance is activated for a test period; automatically entering a waiting period after expiration of the test period; actuating the input device on the notification appliance a second time during the waiting period, whereby a pass signal is automatically transmitted from the notification appliance; and automatically transmitting a fail signal from the notification appliance after expiration of the waiting period if the input device was not actuated a second time during the waiting period.
A storage and dispensing system for products and/or packagings, comprising: - at least one carrier with at least a bottom which defines thereon a snace for the products and/or packagings; - a storage area, such as a storage rack or shelving system, for accommodating the carrier: and - at least one transporter for selective displacement of the carrier from and/or to and into and/or out of the storage area, characterized in that the carrier in a situation where it is accommodated in the storage area comnrises a gripping element (30, 31) on a side oriented outside the storage area, and the transporter comprises a gripping device acting on the gripping element at least during displacement of the carrier into and/or out of the storage area. - at least one carrier with at least a bottom which defines thereon a snace for the products and/or packagings; - a storage area, such as a storage rack or shelving system, for accommodating the carrier: and - at least one transporter for selective displacement of the carrier from and/or to and into and/or out of the storage area,
A method for performing backoff by a STAtion, STA, in a Wireless Local Area Network, WLAN, system, the method comprising: performing (S2210, S2220) a first backoff procedure on a first primary channel having a first channel width or a second backoff procedure on a second primary channel having a second channel width, according to a size of a data unit to be transmitted, wherein the second channel width is greater than the first channel width and the first primary channel is included in the second primary channel, wherein, when the size of the data unit to be transmitted is equal to the first channel width, the method comprises: performing the first backoff procedure on the first primary channel, and transmitting the data unit, when a Transmission Opportunity, TXOP, is allowed as a result of the first backoff procedure, and when the size of the data unit to be transmitted is equal to or greater than the second channel width, the method comprises: performing the second backoff procedure on the second primary channel, and transmitting the data unit, when a TXOP is allowed as a result of the second backoff procedure. performing (S2210, S2220) a first backoff procedure on a first primary channel having a first channel width or a second backoff procedure on a second primary channel having a second channel width, according to a size of a data unit to be transmitted, wherein the second channel width is greater than the first channel width and the first primary channel is included in the second primary channel, wherein, when the size of the data unit to be transmitted is equal to the first channel width, the method comprises: performing the first backoff procedure on the first primary channel, and transmitting the data unit, when a Transmission Opportunity, TXOP, is allowed as a result of the first backoff procedure, and performing the first backoff procedure on the first primary channel, and transmitting the data unit, when a Transmission Opportunity, TXOP, is allowed as a result of the first backoff procedure, and when the size of the data unit to be transmitted is equal to or greater than the second channel width, the method comprises: performing the second backoff procedure on the second primary channel, and transmitting the data unit, when a TXOP is allowed as a result of the second backoff procedure. performing the second backoff procedure on the second primary channel, and transmitting the data unit, when a TXOP is allowed as a result of the second backoff procedure.
An oil-in-water food emulsion comprising, in weight percent based on the total weight of the emulsion, between 15 and 45% of a fat phase, said fat phase comprising glycerides wherein at least 65% of the chains deriving from fatty acids, in weight percent based on the total of weight of said chains, are chains having 18 carbon atoms, wherein said glycerides represent the totality of the glycerides of said fat phase; and at least one emulsifier; wherein said fat phase comprises a mixture of: a vegetable fat as such or a vegetable oil as such A comprising glycerides wherein at least 65% of the chains deriving from fatty acids, in weight percent based on the total weight of said chains, are chains having 18 carbon atoms; and a vegetable fat or vegetable oil B obtained from the interesterification of a vegetable fat as such or vegetale oil as such comprising glycerides wherein at least 65% of the chains deriving from fatty acids, in weight percent based on the total weight of said chains, are chains having 18 carbon atoms; and wherein said food emulsion is a vegetable whipping cream; wherein said fat phase comprises, in weight percent based on the total weight of the glycerides, between 25 and 60% of monounsaturated symmetrical triglycerides; wherein said glycerides comprise, in weight percent based on the total weight of the glycerides, between 20 and 60% of stearic acid; wherein said vegetable fat as such or vegetable oil as such A and said vegetable fat or vegetable oil B obtained from interesterification of a vegetable fat as such or vegetable oil as such are present in said fat phase in a weight ratio comprised between 0.3 and 3; wherein said glycerides comprise, in weight percent based on the total weight of the glycerides,at least 95% of triglycerides; and wherein a vegetable fat as such or vegetable oil as such is a refined fat or a refined oil that has not been subjected to an interesterification process.