mhurhangee/ep-ind-claims huggingface dataset:
Method for monitoring, managing and controlled shutdown of control and/or computer units of at least one system, wherein the control and/or computer units are supplied with power by means of power supply components, characterised in that a control application is installed (101, 201, 301) on each of the control and/or computer units of the at least one system, in that a connection to a control system for power supply components is established (102, 202, 302) via a communication network by the power supply components and the control and/or computer units of the at least one system, in that in addition to the power supply components of the at least one system, the control applications installed on the control and/or computer units of the at least one system are identified (103, 203, 303) by means of a detection call sent by the control system via the communication network, in that the power supply components of the at least one system are assigned (104, 204, 304) the identified control applications which are installed on the control and/or computer units that are at least impacted by a fault in the respective power supply component, in that the assignments between the power supply components and identified control applications are saved, in that the power supply components are monitored for event alarms, and in that on an event alarm occurring in a power supply component, at least one definable action is initiated (107, 207, 307) by the at least one assigned control application on the associated control and/or computer unit.
A method for solid phase synthesis of liraglutide, which is characterized in that the method comprises the following steps: A) in the presence of an activating agent system, Fmoc-Gly-resin is obtained by coupling N-terminal Fmoc-protected glycine (Fmoc-Gly-OH) to a resin solid-phase support; B) by solid-phase synthesis, amino acids with N-terminal Fmoc protection and side chain protection are sequentially coupled based on the sequence of peptide backbone of liraglutide, wherein Fmoc-Lys(Alloc)-OH is employed for lysine; C) the protective group Alloc for side chain of lysine is removed; D) by solid phase synthesis, palmitoyl-Glu-OtBu is coupled to the side chain of lysine; E) crude liraglutide is obtained by cleavage, and removal of the protective groups and the resin; F) liraglutide is finally obtained by purification and lyophilizing. A) in the presence of an activating agent system, Fmoc-Gly-resin is obtained by coupling N-terminal Fmoc-protected glycine (Fmoc-Gly-OH) to a resin solid-phase support; B) by solid-phase synthesis, amino acids with N-terminal Fmoc protection and side chain protection are sequentially coupled based on the sequence of peptide backbone of liraglutide, wherein Fmoc-Lys(Alloc)-OH is employed for lysine; C) the protective group Alloc for side chain of lysine is removed; D) by solid phase synthesis, palmitoyl-Glu-OtBu is coupled to the side chain of lysine; E) crude liraglutide is obtained by cleavage, and removal of the protective groups and the resin; F) liraglutide is finally obtained by purification and lyophilizing.
Method for monitoring and adapting the operating condition of an elevator system, wherein: - a movement of a rotating part (5, 11, 12) of an elevator assembly is adjusted with a drive device according to a movement profile to be determined for the movement of the rotating part - samples are taken of a control signal (2, 13, 14) by means of which the controllable drive device of an elevator is controlled, which drive device is configured to drive one or more parts of the elevator assembly - from the series of samples taken a frequency component is determined that is characteristic to the rotating part (5, 11, 12) of the elevator assembly driven with the drive device - the operating condition of the rotating part (5, 11, 12) of the elevator assembly is monitored on the basis of the determined frequency component - the movement profile of the rotating part of the elevator assembly is changed under continued operation of the elevator on the basis of a change detected in the operating condition of the rotating part (5, 11, 12) of the elevator assembly. - a movement of a rotating part (5, 11, 12) of an elevator assembly is adjusted with a drive device according to a movement profile to be determined for the movement of the rotating part - samples are taken of a control signal (2, 13, 14) by means of which the controllable drive device of an elevator is controlled, which drive device is configured to drive one or more parts of the elevator assembly - from the series of samples taken a frequency component is determined that is characteristic to the rotating part (5, 11, 12) of the elevator assembly driven with the drive device - the operating condition of the rotating part (5, 11, 12) of the elevator assembly is monitored on the basis of the determined frequency component - the movement profile of the rotating part of the elevator assembly is changed under continued operation of the elevator on the basis of a change detected in the operating condition of the rotating part (5, 11, 12) of the elevator assembly.
Method for displaying and/or handling information in a car, wherein: - an image is displayed on a graphical display device by means of a control device, - said image is moved to one side of the graphical display device by means of an input device, - graphical data is generated by means of a control device which is displayed on said graphical display device, such that when the image is moved to one side of the graphical display device, a section (21, 22) of said image, corresponding to one side of the image opposite the side of the graphical display device to where the image is moved, is enlarged, the control device displays an enlarged image of the section (21, 22) of the image on the graphical display device, characterised in that the enlarged image comprises a display of additional details with information related to systems that are located in the front of the vehicle or in the rear. - an image is displayed on a graphical display device by means of a control device, - said image is moved to one side of the graphical display device by means of an input device, - graphical data is generated by means of a control device which is displayed on said graphical display device, such that when the image is moved to one side of the graphical display device, a section (21, 22) of said image, corresponding to one side of the image opposite the side of the graphical display device to where the image is moved, is enlarged,
Method for corrosion protection in bolt holes of a wind turbine, wherein a sleeve made of a corrosion resistant metallic material is inserted into the bolt hole, characterized in that the sleeve is at least partly expanded using an expander tool to be fixed in the bolt hole, and is in particular covering the whole length of the bolt hole wall.
A tissue puncture closure device, comprising: an anchor; a sealing plug; a filament slidingly attaching the sealing plug to the anchor; a compaction member assembly (212, 362) disposed adjacent the sealing plug and structured and arranged to apply an axially directed compressive force to automatically compact the sealing plug toward the anchor, the compaction member assembly (212, 362) having a distal end and a proximal end; a spool including a cam surface portion having a portion of the filament wrapped around said cam surface portion, a stop feature coupled to the spool; a driving plate connected to the spool and arranged to contact and apply a force to the proximal end of the compaction member assembly (212, 362) upon rotation of the driving plate to advance the compaction member assembly (212, 362); a release member being operable from a first position contacting the stop feature to limit rotation of the spool, and a second position out of contact with the stop feature to permit rotation of the spool; characterized in that the cam surface portion has a variable radius construction, wherein a variable rotation force is applied to the driving plate when the filament is unwinded from the cam surface portion. an anchor; a sealing plug; a filament slidingly attaching the sealing plug to the anchor; a compaction member assembly (212, 362) disposed adjacent the sealing plug and structured and arranged to apply an axially directed compressive force to automatically compact the sealing plug toward the anchor, the compaction member assembly (212, 362) having a distal end and a proximal end; a spool including a cam surface portion having a portion of the filament wrapped around said cam surface portion, a stop feature coupled to the spool; a driving plate connected to the spool and arranged to contact and apply a force to the proximal end of the compaction member assembly (212, 362) upon rotation of the driving plate to advance the compaction member assembly (212, 362); a release member being operable from a first position contacting the stop feature to limit rotation of the spool, and a second position out of contact with the stop feature to permit rotation of the spool; characterized in that the cam surface portion has a variable radius construction, wherein a variable rotation force is applied to the driving plate when the filament is unwinded from the cam surface portion.
A wear pad assembly for a work tool comprising a bucket-like element having an edge provided with one or more holes, the wear pad assembly comprising: a wear-resistant pad; a mounting bracket configured for attachment to the wear-resistant pad; and a quick-release pin for securing the wear pad assembly to the work tool edge; characterised in that the mounting bracket further comprises an attachment surface for attachment to the wear-resistant pad, the attachment surface comprising one or more shear lugs. a wear-resistant pad; a mounting bracket configured for attachment to the wear-resistant pad; and a quick-release pin for securing the wear pad assembly to the work tool edge; characterised in that the mounting bracket further comprises an attachment surface for attachment to the wear-resistant pad, the attachment surface comprising one or more shear lugs.
A pneumatic carrier (20, 33, 38, 50, 115) comprising a pneumatically pressurizable body (23, 61, 62, 63) which under operating pressure operatively holds a pressure member (24, 51, 120) extending substantially over its length and a tension member (25, 52, 121) likewise extending substantially over its length in spaced relationship, and a tension-loadable connecting element (26, 28, 57, 58), connecting points (27, 27', 27", 29) being provided on the compression member (24, 51, 120) and on the tension member (25, 52, 121) for at least the tension member (25, 52, 121) extending between the compression member (24, 51, 120) and the tension member (25, 52, 121) and passing through the support (20, 33, 38, 50, 115), (25, 52, 121), characterized in that the connecting element (26, 28, 57, 58) between the compression member (24, 51, 120) and the tension member (25, 52, 121) extends in a zigzag manner over in each case a plurality of connecting points (27, 27', 27"29) on the compression member (24, 51, 120) and on the tension member (25, 52, 121) or over a plurality of connecting points on the tension member (25, 52, 121), 121) or over a plurality of connecting points on the pneumatically pressurizable body (23, 61, 62, 63), the pressure member (24, 51, 120) and the tension member (25, 52, 121) being free of joints at the connecting points (27, 27', 27", 29), and the connecting element (26, 28, 57, 58) being fixed at the connecting points (27, 27', 27", 29) assigned to it.
A homing apparatus within a drive mechanism of a lacing engine for an automated footwear platform, the homing apparatus comprising: an indexing wheel; a plurality of Geneva teeth distributed around a portion of a perimeter of the indexing wheel, each Geneva tooth of the plurality of Geneva teeth including side profiles conforming to a first side profile that generates a first force when engaged by an index tooth (152, 153) on a portion of the drive mechanism; and a stop tooth located along the perimeter of the indexing wheel between two Geneva teeth, the stop tooth includes side profiles conforming to a second side profile that generates a second force when engaged by the index tooth (152, 153). an indexing wheel; a plurality of Geneva teeth distributed around a portion of a perimeter of the indexing wheel, each Geneva tooth of the plurality of Geneva teeth including side profiles conforming to a first side profile that generates a first force when engaged by an index tooth (152, 153) on a portion of the drive mechanism; and a stop tooth located along the perimeter of the indexing wheel between two Geneva teeth, the stop tooth includes side profiles conforming to a second side profile that generates a second force when engaged by the index tooth (152, 153).
A method for processing capability information of a mobile device, wherein the method comprises: determining, by a mobile device, at least two of a plurality of air interface types supported by a same carrier as target air interface types, wherein the carrier is a cell established by a base station; and sending, by the mobile device, air interface indication information to the base station based on the target air interface types, whereby the base station schedules the mobile device based on the air interface indication information; wherein the air interface indication information comprises target capability information corresponding to the target air interface types, and the target capability information is at least two pieces of capability information in a one-to-one correspondence with the at least two air interface types, and the method further comprises: determining, by the mobile device, the target capability information. determining, by a mobile device, at least two of a plurality of air interface types supported by a same carrier as target air interface types, wherein the carrier is a cell established by a base station; and sending, by the mobile device, air interface indication information to the base station based on the target air interface types, whereby the base station schedules the mobile device based on the air interface indication information; wherein the air interface indication information comprises target capability information corresponding to the target air interface types, and the target capability information is at least two pieces of capability information in a one-to-one correspondence with the at least two air interface types, and the method further comprises: determining, by the mobile device, the target capability information.
A method of estimating the skew of a first clock in a slave device relative to a second clock in a master device, the slave device and master device being communicatively connected by a network, the method including the steps of: receiving, at the slave device, timing messages sent from the master device having timestamps from the second clock; deriving in the slave device, using said timing messages, a corrected clock which is an adjusted version of the first clock and which is synchronized to the second clock; calculating the ratio between the evolution of the corrected clock and the evolution of the uncorrected first clock over a discrete time period; and estimating the skew from the calculated ratio. receiving, at the slave device, timing messages sent from the master device having timestamps from the second clock; deriving in the slave device, using said timing messages, a corrected clock which is an adjusted version of the first clock and which is synchronized to the second clock; calculating the ratio between the evolution of the corrected clock and the evolution of the uncorrected first clock over a discrete time period; and estimating the skew from the calculated ratio.
A method for increasing gateway stability in a long term evolution system, LTE, mode Femtocell system, comprising: a HeNB GW determining that multiple stream control transmission protocol, SCTP, links need to be established between the HeNB GW and a single mobility management entity, MME, and setting different Global eNB identifiers, Global eNB IDs, for S1 interfaces on different SCTP links under one same MME; the HeNB GW establishing multiple SCTP links between the HeNB GW and the MME; and for each established SCTP link, the HeNB GW notifying the MME of upper-layer application configuration information borne by the SCTP link through an S1 setup request, and establishing an S1 link on the SCTP link. a HeNB GW determining that multiple stream control transmission protocol, SCTP, links need to be established between the HeNB GW and a single mobility management entity, MME, and setting different Global eNB identifiers, Global eNB IDs, for S1 interfaces on different SCTP links under one same MME; the HeNB GW establishing multiple SCTP links between the HeNB GW and the MME; and for each established SCTP link, the HeNB GW notifying the MME of upper-layer application configuration information borne by the SCTP link through an S1 setup request, and establishing an S1 link on the SCTP link.
Detector for embedded, elongated objects with an evaluation unit, which has a computing means and an output means, as well as a handheld measuring head that is movable over an area in a scanning direction, which has a path detector and two transmitting/receiving units (11a, 11b) each with an antenna (12a, 12b), in which a distance measured in the area between the antennas (12a, 12b) is in the range of between 5 cm and 50 cm, characterised in that the measuring head is configured with folding legs (17a, 17b) that can pivot around 180°, in which the two transmitting/receiving units (11a, 11b) are arranged with their antennas (12a, 12b) each on different legs (17a, 17b).
Road paver having: a screed for applying a material layer to a foundation; a layer thickness detecting device for detecting the thickness (h B) of the material layer applied, wherein the road paver is configured to use the data concerning the layer thickness detected by the layer thickness detecting device for active regulation of the road paver with respect to a position of the screed for maintaining a predetermined layer thickness, wherein the layer thickness detecting device includes a first sensor behind the screed, in the direction of travel, for detecting a first distance from the applied material layer and a second sensor in front of the screed, in the direction of travel, for detecting a second distance from the foundation, and wherein the layer thickness detecting device includes a support (36, 36a) immovably attached to the screed on which the first sensor is arranged at a first distance from the rear screed edge, wherein the second sensor is arranged, at a second distance from the rear screed edge, at the support (36; 36a) or a further support that is attached to a pull arm rotating the screech. characterized in that the layer thickness detecting device includes a signal processing unit that is configured to detect the layer thickness (h B) of the applied material layer on the basis of the sensor signals (s 1, s 2) from the first sensor and from the second sensor, of the distances (a, b) of the first sensor and of the second sensor from the rear screed edge, and of the attachment heights of the first sensor and the second sensor relative to the rear screed edge. a screed for applying a material layer to a foundation; a layer thickness detecting device for detecting the thickness (h B) of the material layer applied, wherein the road paver is configured to use the data concerning the layer thickness detected by the layer thickness detecting device for active regulation of the road paver with respect to a position of the screed for maintaining a predetermined layer thickness, wherein the layer thickness detecting device includes a first sensor behind the screed, in the direction of travel, for detecting a first distance from the applied material layer and a second sensor in front of the screed, in the direction of travel, for detecting a second distance from the foundation, and wherein the layer thickness detecting device includes a support (36, 36a) immovably attached to the screed on which the first sensor is arranged at a first distance from the rear screed edge, wherein the second sensor is arranged, at a second distance from the rear screed edge, at the support (36; 36a) or a further support that is attached to a pull arm rotating the screech. characterized in that the layer thickness detecting device includes a signal processing unit that is configured to detect the layer thickness (h B) of the applied material layer on the basis of the sensor signals (s 1, s 2) from the first sensor and from the second sensor, of the distances (a, b) of the first sensor and of the second sensor from the rear screed edge, and of the attachment heights of the first sensor and the second sensor relative to the rear screed edge.
A sensor for a vibration imaging system, the sensor comprising: a transmitter configured to project an array of laser beams onto a surface of an object such that neighboring beams in the array of laser beams are frequency shifted relative to each other; an interferometer configured to mix radiations reflected from neighboring points on the surface of the object such that the radiations from neighboring points interfere with one another, wherein a second of the neighboring points on the surface of the object is positioned between a first point of the neighboring points and a third point of the neighboring points, and wherein the interferometer is configured to i) mix radiations reflected from the second point with radiations reflected from the first point and also ii) mix radiations reflected from the second point with radiations reflected from the third point; a photodetector array configured to produce output signals representative of the interfering beams; a demodulator configured to demodulate the output signals; and a computing device configured to calculate a deformation profile for the object based on the demodulated output signals. a transmitter configured to project an array of laser beams onto a surface of an object such that neighboring beams in the array of laser beams are frequency shifted relative to each other; an interferometer configured to mix radiations reflected from neighboring points on the surface of the object such that the radiations from neighboring points interfere with one another, wherein a second of the neighboring points on the surface of the object is positioned between a first point of the neighboring points and a third point of the neighboring points, and wherein the interferometer is configured to i) mix radiations reflected from the second point with radiations reflected from the first point and also ii) mix radiations reflected from the second point with radiations reflected from the third point; a photodetector array configured to produce output signals representative of the interfering beams; a demodulator configured to demodulate the output signals; and a computing device configured to calculate a deformation profile for the object based on the demodulated output signals.