mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting failure of a feedback device for detecting a parameter of a propeller driven by an engine to rotate about an axis (A), the method comprising: at a computing device , receiving at least one sensor signal from at least one sensor , the at least one sensor signal produced by the at least one sensor in response to relative movement between the feedback device and the at least one sensor , one of the feedback device and the at least one sensor moving along the axis (A) with adjustment of a blade angle of the propeller , the at least one sensor signal indicative of a rotational speed and of the blade angle of the propeller ; determining, from the at least one sensorsignal, whetherthe rotational speed of the propeller is within a predetermined range of a reference speed and an expected change in the blade angle of the propeller has occurred in response to a command to adjust the blade angle of the propeller to maintain the rotational speed of the propeller at the reference speed; and in response to determining, from the at least one sensor signal, that the rotational speed of the propeller is within the predetermined range of the reference speed and the expected change in the blade angle of the propeller has failed to occur in response to the command, determining that movement of the one of the feedback device and the at least one sensor along the axis is inoperable, and outputting an alert. at a computing device , receiving at least one sensor signal from at least one sensor , the at least one sensor signal produced by the at least one sensor in response to relative movement between the feedback device and the at least one sensor , one of the feedback device and the at least one sensor moving along the axis (A) with adjustment of a blade angle of the propeller , the at least one sensor signal indicative of a rotational speed and of the blade angle of the propeller ; determining, from the at least one sensorsignal, whetherthe rotational speed of the propeller is within a predetermined range of a reference speed and an expected change in the blade angle of the propeller has occurred in response to a command to adjust the blade angle of the propeller to maintain the rotational speed of the propeller at the reference speed; and in response to determining, from the at least one sensor signal, that the rotational speed of the propeller is within the predetermined range of the reference speed and the expected change in the blade angle of the propeller has failed to occur in response to the command, determining that movement of the one of the feedback device and the at least one sensor along the axis is inoperable, and outputting an alert.
An assembly comprising an anchoring device and a mounting system for mounting the anchoring device during the building of walls, ceiling panels or floor slabs made of concrete on a formwork panel made of metal, wood or plastic, wherein the mounting system is fastenable on the anchoring device without tools and comprises a central holding region , which is arranged on the anchoring device in the fastened state, and wings , which are arranged on said central holding region and are intended for docking and securing the anchoring device on a reinforcement , wherein the shape of the central holding region is adapted to the design of the anchoring device , characterized in that the anchoring device is an anchoring socket with a rear portion, the central holding region surrounds the rear portion of the anchoring device and has retaining means that hook onto the anchoring device, establish a close-fitting connection to the anchoring device and provide a form-fitting and frictional connection to the anchoring device until the assembly is mounted on the reinforcement, wherein, when the anchoring device is located below the mounting system , the central holding region comprises a support which extends perpendicular to the two wings , partially surrounds an upper side of the anchoring device from above and is adjoined at the side by roots of the wings , and in the operating position of the anchoring device , the wings can be bent by reinforcing bars that are spaced apart from the inner face of the formwork panel , in such a way that said wings make the anchoring device pressable against the inner face of the formwork panel with a force, to which end the wings can be bent either from an initially V-shaped position into a position in parallel with the formwork or from a position in a single plane towards the formwork panel .
A device for processing and impregnation of histological and biological samples, comprising a rotating device enclosed in a housing , the axis of rotation of which is arranged horizontally, with containers for sample cassettes mounted thereon in the form of a vertically arranged ring, means for rotating the axis of rotation with variable speed and vessels with processing and impregnating liquids located outside the housing and connected to it by pipes for supplying and discharging said liquids, characterized in that it additionally comprises a mechanism for orientation of containers for sample cassettes, which is located between the container ring and the housing wall and which has separate means (10, 11, 12, 13, 14, 15, 16, 17, 18, 19,. 20, 21, 22, 23, 24, 25, 26, 27, 28) for transferring sample cassette containers into a horizontal or inclined position and holding them in a horizontal or inclined position.
A system for protection from impulsive loads as generated by impacts and explosions, the system comprising a first micro-truss architecture, wherein the first micro-truss architecture comprises: a first surface and a second surface parallel to each other with a distance therebetween defining a thickness of the micro-truss architecture; a plurality of angled struts extending along a plurality of non-vertical directions each having a first end on the first surface and a second end; a plurality of nodes where the plurality of angled struts extending along a plurality of directions interpenetrate one another; the plurality of angled struts and the plurality of nodes defining a plurality of unit cells each having an upper node among the plurality of nodes, a lower node among the plurality of nodes, and a cell height, the cell height being the distance between the upper node and the lower node, wherein the second end of each angled struts is on the lower node closest to the second surface at a distance away from the second surface; and a vertical post extending from the first surface in a normal direction having a first end on the first surface and a second end extending past the lower node closest to the second surface onto the second surface. a first surface and a second surface parallel to each other with a distance therebetween defining a thickness of the micro-truss architecture; a plurality of angled struts extending along a plurality of non-vertical directions each having a first end on the first surface and a second end; a plurality of nodes where the plurality of angled struts extending along a plurality of directions interpenetrate one another; the plurality of angled struts and the plurality of nodes defining a plurality of unit cells each having an upper node among the plurality of nodes, a lower node among the plurality of nodes, and a cell height, the cell height being the distance between the upper node and the lower node, wherein the second end of each angled struts is on the lower node closest to the second surface at a distance away from the second surface; and a vertical post extending from the first surface in a normal direction having a first end on the first surface and a second end extending past the lower node closest to the second surface onto the second surface.
A method of producing an oxygen ion composite membrane comprising: forming by slurry coating a first layer on a porous support containing a first mixture of particles of (Ln 1-x A x ) w Cr 1-y B y O 3-δ and doped zirconia and substantially free of pore formers, where Ln is La, Y, Pr, Ce or Sm; A is Ca, B is Fe, Mn, Co, Al, Ti or combinations thereof; w is 0.9 - 1.1; x is 0.1 - 0.4 and y is 0.1 - 0.6; forming by slurry coating a second layer on the first layer that contains a second mixture of particles of (Ln 1-x A x ) w Cr 1-y B y O 3-δ and the doped zirconia and substantially free of pore formers, where Ln is La, Y, Pr, Ce or Sm; A is Sr; and B is Fe, Mn, Co, Al, Ti or combinations thereof; w is 0.9 - 1.1; x is 0.1 - 0.3 and y is 0.1 - 0.6; and heating the first layer, the second layer and the porous support in air at a temperature of > 1300 °C so that said first layer partially sinters into a porous mass containing the first mixture of particles, thereby to provide a porous fuel oxidation layer and the second layer fully sinters into a densified mass containing the second mixture of particles, thereby to provide a dense separation layer; wherein the partially sintered first layer contains (Ln 1-x A x ) w Cr 1-y B y O 3-δ and doped zirconia in a first volume ratio of between 2 to 3 and 4 to 1 on a volume percentile basis such; and wherein the sintered second layer contains (Ln 1-x A x ) w Cr 1-y B y O 3-δ and doped zirconia in a second volume ratio of between 1 to 4 and 3 to 2 on a volume percentile basis. forming by slurry coating a first layer on a porous support containing a first mixture of particles of (Ln 1-x A x ) w Cr 1-y B y O 3-δ and doped zirconia and substantially free of pore formers, where Ln is La, Y, Pr, Ce or Sm; A is Ca, B is Fe, Mn, Co, Al, Ti or combinations thereof; w is 0.9 - 1.1; x is 0.1 - 0.4 and y is 0.1 - 0.6; forming by slurry coating a second layer on the first layer that contains a second mixture of particles of (Ln 1-x A x ) w Cr 1-y B y O 3-δ and the doped zirconia and substantially free of pore formers, where Ln is La, Y, Pr, Ce or Sm; A is Sr; and B is Fe, Mn, Co, Al, Ti or combinations thereof; w is 0.9 - 1.1; x is 0.1 - 0.3 and y is 0.1 - 0.6; and heating the first layer, the second layer and the porous support in air at a temperature of > 1300 °C so that said first layer partially sinters into a porous mass containing the first mixture of particles, thereby to provide a porous fuel oxidation layer and the second layer fully sinters into a densified mass containing the second mixture of particles, thereby to provide a dense separation layer; wherein the partially sintered first layer contains (Ln 1-x A x ) w Cr 1-y B y O 3-δ and doped zirconia in a first volume ratio of between 2 to 3 and 4 to 1 on a volume percentile basis such; and wherein the sintered second layer contains (Ln 1-x A x ) w Cr 1-y B y O 3-δ and doped zirconia in a second volume ratio of between 1 to 4 and 3 to 2 on a volume percentile basis.
A method for cleaning a contaminated surface , said method comprising: covering at least a portion of the contaminated surface with an absorptive medium ; at least one of saturating at least a portion of the absorptive medium with a cleaning solution before the portion of the contaminated surface is covered with the absorptive medium, and saturating at least a portion of the absorptive medium with a cleaning solution after the portion of the contaminated surface is covered with the absorptive medium ; and applying steam to the saturated absorptive medium for a period of time to facilitate removing contaminants from the contaminated surface and to facilitate transferring the contaminants to the absorptive medium, wherein the saturated absorptive medium is substantially stationary relative to the contaminated surface as steam is applied to the saturated absorptive medium; characterized in that applying steam to the saturated absorptive medium further comprises: directing at least one steam jet from a steam jet head towards the saturated absorptive medium; and directing the steam through the saturated absorptive medium to facilitate forcing the cleaning solution towards the contaminated surface . covering at least a portion of the contaminated surface with an absorptive medium ; at least one of saturating at least a portion of the absorptive medium with a cleaning solution before the portion of the contaminated surface is covered with the absorptive medium, and saturating at least a portion of the absorptive medium with a cleaning solution after the portion of the contaminated surface is covered with the absorptive medium ; and applying steam to the saturated absorptive medium for a period of time to facilitate removing contaminants from the contaminated surface and to facilitate transferring the contaminants to the absorptive medium, wherein the saturated absorptive medium is substantially stationary relative to the contaminated surface as steam is applied to the saturated absorptive medium; characterized in that applying steam to the saturated absorptive medium further comprises: directing at least one steam jet from a steam jet head towards the saturated absorptive medium; and directing the steam through the saturated absorptive medium to facilitate forcing the cleaning solution towards the contaminated surface . directing at least one steam jet from a steam jet head towards the saturated absorptive medium; and directing the steam through the saturated absorptive medium to facilitate forcing the cleaning solution towards the contaminated surface .
A device, comprising: one or more memories; and one or more processors, communicatively coupled to the one or more memories, to: analyze execution of suspicious data; detect one or more states of execution of the suspicious data that indicate that at least a portion of malware is unpacked; assign the one or more states of execution a priority level corresponding to an unpacked state of the malware; and extract at least a portion of the suspicious data from one or more locations based on the assigned priority level. one or more memories; and one or more processors, communicatively coupled to the one or more memories, to: analyze execution of suspicious data; detect one or more states of execution of the suspicious data that indicate that at least a portion of malware is unpacked; assign the one or more states of execution a priority level corresponding to an unpacked state of the malware; and extract at least a portion of the suspicious data from one or more locations based on the assigned priority level. analyze execution of suspicious data; detect one or more states of execution of the suspicious data that indicate that at least a portion of malware is unpacked; assign the one or more states of execution a priority level corresponding to an unpacked state of the malware; and extract at least a portion of the suspicious data from one or more locations based on the assigned priority level.
Hydraulic binder based on supplementary cementitious material and reactive belite, containing x-Ca 2 SiO 4 in an amount of > 30 % by weight and at least one X-ray amorphous phase in an amount of > 5 % by weight, as activator, wherein the activator is obtainable by hydrothermal treatment of a starting material, which contains sources for CaO and SiO 2 , in an autoclave at a temperature of 100 to 300 °C and a residence time of 0.1 to 24 hours, and tempering the obtained intermediate product at 350 to 495 °C and a residence time of 0.01 to 600 min..
Patient valve for ventilating a patient with a ventilator, comprising a first valve element and a second valve element , wherein the first valve element comprises at least one connector , wherein the at least one connector comprises a CO2 measuring connection and one airway pressure measuring port , where the at least one connector is aligned with its central axis at an angle to the patient valve central axis that deviates from the vertical, such that a reduced-length patient valve with a reduced dead space volume (VT) is supported, and wherein the first valve element is coupled to the second valve element at a connection point and wherein the second valve element comprises at least one non-return diaphragm , which is located axially at the end face of the second valve element in such a way that the resulting dead space volume (VT) is at least reduced, characterized in that the second valve element has at least one oxygen feed connection , such that oxygen can be introduced into the second valve element in any concentrated form.
A method for monitoring the utilization of a first connection in a data network, particularly in a mobile telephone network, characterized in that an independent second logic connection is established which is assigned a lower priority than the first connection and which competes with the first connection for the data rate within the data network, wherein test data with low data volume are sent via the second connection, wherein the reception of the test data is detected, and wherein a complete reception of the test data indicates that the first connection is not fully utilized.
A computerized method implemented by a processor in communication with a memory, wherein the memory stores computer-readable instructions that, when executed by the processor , cause the processor to perform: accessing data indicative of a set of snapshots of one or more aspects of a video game over time, wherein each of one or more of the set of snapshots : is associated with a timestamp; and comprises data indicative of: (a) a first pose associated with an input device, and (b) a state of a video game simulation at a time of the snapshot ; receiving data indicative of: an input from the input device at a time occurring after one or more timestamps associated with the one or more snapshots ; and an initial pose associated with the input device for the input; and determining an adjusted pose for the input based on a relationship, for each snapshot of the one or more snapshots , between (i) the first pose associated with the input device and (ii) the state of the video game simulation at the time of the snapshot. accessing data indicative of a set of snapshots of one or more aspects of a video game over time, wherein each of one or more of the set of snapshots : is associated with a timestamp; and comprises data indicative of: (a) a first pose associated with an input device, and (b) a state of a video game simulation at a time of the snapshot ; is associated with a timestamp; and comprises data indicative of: (a) a first pose associated with an input device, and (b) a state of a video game simulation at a time of the snapshot ; (a) a first pose associated with an input device, and (b) a state of a video game simulation at a time of the snapshot ; receiving data indicative of: an input from the input device at a time occurring after one or more timestamps associated with the one or more snapshots ; and an initial pose associated with the input device for the input; and an input from the input device at a time occurring after one or more timestamps associated with the one or more snapshots ; and an initial pose associated with the input device for the input; and determining an adjusted pose for the input based on a relationship, for each snapshot of the one or more snapshots , between (i) the first pose associated with the input device and (ii) the state of the video game simulation at the time of the snapshot.
Method of operating a user equipment in a radio access network, the method comprising determining, based on a predefined symbol configuration being defined in a standard or being available without specific configuration from a network or network node, a starting symbol of a scheduled transmission pertaining to a physical uplink control channel, PUCCH, carrying uplink control information comprising Hybrid Acknowledgement Repeat Request, HARQ, feedback in a transmission timing structure, the transmission timing structure representing a time interval corresponding to a substructure of a slot and comprising a plurality of symbols; the predefined symbol configuration indicating a set of more than one symbol, the starting symbol being selectable from the set based on control signaling indicating which of the symbols of the set is to be used as a starting symbol; the predefined symbol configuration further indicating the duration of the scheduled transmission in number of symbols ; and transmitting the uplink control information on the PUCCH based on the determined starting symbol. the predefined symbol configuration indicating a set of more than one symbol, the starting symbol being selectable from the set based on control signaling indicating which of the symbols of the set is to be used as a starting symbol; the predefined symbol configuration further indicating the duration of the scheduled transmission in number of symbols ; and transmitting the uplink control information on the PUCCH based on the determined starting symbol.
An assembly comprising a femoral component and an apparatus for guiding resection of a tibia during a knee replacement surgery, the femoral component comprising a medial and a lateral condyle; the apparatus comprising: a first portion configured to position the apparatus relative to the medial condyle of the femoral component and the lateral condyle of the femoral component and a second portion connected to the first portion and defining one or more slots , the slots configured for at least one of a first proximal cut and a first sagittal cut to the tibia, wherein the first portion comprises: a first arm having a first male connection feature configured to connect with a first female connection feature in the medial condyle of the femoral component ; a second arm having a second male connection feature configured to connect with a second female connection feature in the lateral condyle of the femoral component ; and an intermediate portion connected to the first arm and the second arm at a proximal end portion and connected to the second portion at a distal end portion. a first portion configured to position the apparatus relative to the medial condyle of the femoral component and the lateral condyle of the femoral component and a second portion connected to the first portion and defining one or more slots , the slots configured for at least one of a first proximal cut and a first sagittal cut to the tibia, wherein the first portion comprises: a first arm having a first male connection feature configured to connect with a first female connection feature in the medial condyle of the femoral component ; a second arm having a second male connection feature configured to connect with a second female connection feature in the lateral condyle of the femoral component ; and an intermediate portion connected to the first arm and the second arm at a proximal end portion and connected to the second portion at a distal end portion. a first arm having a first male connection feature configured to connect with a first female connection feature in the medial condyle of the femoral component ; a second arm having a second male connection feature configured to connect with a second female connection feature in the lateral condyle of the femoral component ; and an intermediate portion connected to the first arm and the second arm at a proximal end portion and connected to the second portion at a distal end portion.