mhurhangee/patent-ind-claim-en huggingface dataset:
Method for inspecting tyres , having the steps of: - illuminating a surface region of a tyre to be inspected by means of an illumination device , wherein the illumination device has a plurality of light sources , which illuminate the surface region from two directions; - generating a plurality of two-dimensional image recordings of the illuminated surface region by means of at least one image recording device ; and - evaluating the plurality of two-dimensional image recordings by means of an evaluation device in order to detect defects, flaws and/or damage on the surface of the tyre ; wherein the plurality of two-dimensional image recordings are generated in different illumination states, and the evaluation of the plurality of two-dimensional image recordings comprises determining three-dimensional tread information relating to the surface of the tyre on the basis of the plurality of two-dimensional image recordings generated in different illumination states, wherein, when evaluating the plurality of two-dimensional image recordings, a photometric stereo analysis is carried out by the evaluation device on the basis of the plurality of two-dimensional image recordings generated in different illumination states, characterized in that the angles of incidence (α and β) which arise on account of the illumination of the surface region from two directions are in a range between 35 and 45 degrees. - illuminating a surface region of a tyre to be inspected by means of an illumination device , wherein the illumination device has a plurality of light sources , which illuminate the surface region from two directions; - generating a plurality of two-dimensional image recordings of the illuminated surface region by means of at least one image recording device ; and - evaluating the plurality of two-dimensional image recordings by means of an evaluation device in order to detect defects, flaws and/or damage on the surface of the tyre ; wherein the plurality of two-dimensional image recordings are generated in different illumination states, and the evaluation of the plurality of two-dimensional image recordings comprises determining three-dimensional tread information relating to the surface of the tyre on the basis of the plurality of two-dimensional image recordings generated in different illumination states, wherein, when evaluating the plurality of two-dimensional image recordings, a photometric stereo analysis is carried out by the evaluation device on the basis of the plurality of two-dimensional image recordings generated in different illumination states, characterized in that the angles of incidence (α and β) which arise on account of the illumination of the surface region from two directions are in a range between 35 and 45 degrees.
Gas turbine engine comprising: an annular first combustor assembly ; a second combustor assembly ; at least three optical flame detectors , arranged to monitor flame presence in the first combustor assembly and configured to supply respective flame monitoring signals (SFM1, SFM2, SFM3) having a first state (FON) when a flame is detected in the first combustor assembly and a second state (FOFF) otherwise; a temperature monitoring assembly , configured to detect a control temperature (TC) of hot gas flowing from the first combustor assembly to the second combustor assembly at a location downstream of the first combustor assembly ; and a processing unit , configured to determine dangerous flame failure based, at least in a control range of operating conditions, on the flame monitoring signals (SFM1, SFM2, SFM3) and a control function of the control temperature (TC) and based on M-out-of-N activation redundancy with Hardware Failure Tolerance of at least 1, wherein M is at least 3 and N is at least 4. an annular first combustor assembly ; a second combustor assembly ; at least three optical flame detectors , arranged to monitor flame presence in the first combustor assembly and configured to supply respective flame monitoring signals (SFM1, SFM2, SFM3) having a first state (FON) when a flame is detected in the first combustor assembly and a second state (FOFF) otherwise; a temperature monitoring assembly , configured to detect a control temperature (TC) of hot gas flowing from the first combustor assembly to the second combustor assembly at a location downstream of the first combustor assembly ; and a processing unit , configured to determine dangerous flame failure based, at least in a control range of operating conditions, on the flame monitoring signals (SFM1, SFM2, SFM3) and a control function of the control temperature (TC) and based on M-out-of-N activation redundancy with Hardware Failure Tolerance of at least 1, wherein M is at least 3 and N is at least 4.
A system for treating a tissue site , comprising: an interface manifold adapted to be positioned at the tissue site and to provide fluid communication with the tissue site ; an interface sealing member having an interior facing side and an exterior facing side, the interface sealing member adapted to provide a sealed treatment space between the interior facing side and the tissue site, the interface manifold sized for positioning in the sealed treatment space; a receiving site at the exterior facing side of the interface sealing member ; an absorbent layer for positioning at the receiving site ; and a storage sealing member adapted to provide a sealed storage space between the storage sealing member and the receiving site , the absorbent layer sized for positioning in the sealed storage space, wherein the receiving site comprises a non-adherent treatment , the non-adherent treatment adapted to releaseably secure the storage sealing member to the receiving site . an interface manifold adapted to be positioned at the tissue site and to provide fluid communication with the tissue site ; an interface sealing member having an interior facing side and an exterior facing side, the interface sealing member adapted to provide a sealed treatment space between the interior facing side and the tissue site, the interface manifold sized for positioning in the sealed treatment space; a receiving site at the exterior facing side of the interface sealing member ; an absorbent layer for positioning at the receiving site ; and a storage sealing member adapted to provide a sealed storage space between the storage sealing member and the receiving site , the absorbent layer sized for positioning in the sealed storage space, wherein the receiving site comprises a non-adherent treatment , the non-adherent treatment adapted to releaseably secure the storage sealing member to the receiving site .
A method for regulating the relative position of an analyte of a sample in relation to a light beam (F), the light beam (F) stems from a light source and propagates along an axis of propagation (Z), the method comprising : - illuminating the analyte of the sample with the light beam (F), - taking with the imaging device a transmission image of the beams scattered by the analyte of the for establishing a diffraction pattern, and - modifying the relative position of the analyte of the sample in relation to the light beam (F) according to at least one property of the diffraction pattern, the method being characterized in that : the modification of the position of the analyte of the sample in relation to the light beam (F) comprises at least one of the following steps: - aligning the analyte of the sample on the axis of propagation (Z) of the light beam (F), - modifying the distance between the light source and the analyte of the sample along the axis of propagation (Z) so that the diffraction pattern resulting from the beams diffracted by the analyte of the sample is at the center of the diffraction pattern, - adjusting the distance between the light source and the analyte of the sample along the axis of propagation (Z) until the analyte of the sample occults the light beam (F), and - maximizing the radiation emitted by the analyte of the sample in response to the excitation of a light beam from the light source . - illuminating the analyte of the sample with the light beam (F), - taking with the imaging device a transmission image of the beams scattered by the analyte of the for establishing a diffraction pattern, and - modifying the relative position of the analyte of the sample in relation to the light beam (F) according to at least one property of the diffraction pattern, - aligning the analyte of the sample on the axis of propagation (Z) of the light beam (F), - modifying the distance between the light source and the analyte of the sample along the axis of propagation (Z) so that the diffraction pattern resulting from the beams diffracted by the analyte of the sample is at the center of the diffraction pattern, - adjusting the distance between the light source and the analyte of the sample along the axis of propagation (Z) until the analyte of the sample occults the light beam (F), and - maximizing the radiation emitted by the analyte of the sample in response to the excitation of a light beam from the light source .
A pro-fluorophore of Formula (I): wherein R 1 to R 8 , R 11 -R 12 and R 14 -R 15 are independently selected from hydrogen, hydroxyl, halogen, cyano, nitro, optionally substituted C 1 -C 10 alkyl, optionally substituted amino C 1 -C 10 alkyl, optionally substituted C 1 -C 10 alkoxy, R 13 is selected from optionally substituted C 1 -C 10 alkyl such as optionally substituted ethyl, optionally substituted propyl or optionally substituted butyl, Z is -CR 16 R 17 wherein R 16 and R 17 are independently selected from hydrogen and optionally substituted C 1 -C 6 alkyl, or any tautomer, conjugate or salts thereof, wherein the term "substituted" refers to groups substituted with from 1 to 5 substituents selected from the group consisting of C 1 -C 6 alkyl, amino, aminosulfonyl, amino carbonyl, sulfonyl, alkoxy, alkoxy carbonyl, halogen, trihalomethyl, cyano, hydroxy, mercapto and nitro, wherein said conjugate is of Formula (II): Wherein Ra is a moiety -R 13 -R 13a , R b is a moiety -R 12 -R 12 b, R c is a moiety -R 11 -R 11c , R d is a moiety -R 15 -R 15d , R g is a moiety -R 14 -R 14g , wherein R 11c , R 12b , R 13a , R 14g and R 15d are independently optionally present and at least one of the groups R 11c , R 12b , R 13a , R 14g and R 15d is a linking group having a specific affinity for the target molecule.
A biocompatible conjugated polymer nanoparticle comprising: a copolymer backbone comprising maleic acid monomers; a plurality of sidechains covalently linked to said backbone; and a plurality of platinum compounds dissociably linked to said sidechains; wherein at least one of said plurality of platinum compounds is linked to said sidechain through at least one coordination bond between a carbonyl oxygen or an amide oxygen of the sidechain and the platinum atom of the platinum compound. a copolymer backbone comprising maleic acid monomers; a plurality of sidechains covalently linked to said backbone; and a plurality of platinum compounds dissociably linked to said sidechains; wherein at least one of said plurality of platinum compounds is linked to said sidechain through at least one coordination bond between a carbonyl oxygen or an amide oxygen of the sidechain and the platinum atom of the platinum compound.
A handle assembly for a motor vehicle, comprising a handle body and a handle body cover , wherein the handle body has a handle region and a first and a second fastening region , each comprising a fastening means with which the handle assembly can be fastened to a motor vehicle, and wherein the handle region of the handle body has a handle receiving space and at least one of the fastening regions has a fastening receiving space which is coupled to the handle receiving space, a printed circuit board module which is arranged in the handle receiving space and can be coupled to a control device via a line device , and at least one luminous module arranged in the fastening receiving space , characterized in that a rigid connecting means is arranged between the board module and the light module and couples the board module and the light module mechanically rigidly and electrically to each other.
A method for wireless communication performed by first wireless device (105-f) operating in a time division duplex, TDD, system, comprising: receiving (1505; 1605) a first cell group identifier from a network controller , the first cell group identifier representing a group of cells, characterized in that the cells in the group of cells are associated with each other based at least in part on a likelihood of each cell in the group of cells to cause interference at one or more remote wireless devices, the first wireless device (105-f) being associated with a first cell of the group of cells; transmitting (620; 1510; 1610) a first reference signal that is indicative of the first cell group identifier; receiving (1515; 1615), from the network controller and based at least in part on the first reference signal being part of an interfering transmission at a remote wireless device, a second cell group identifier representing a sub-group of the group of cells, the sub-group including the first cell; and transmitting (645; 1520; 1620) one or more reference signals that are indicative of the second cell group identifier. receiving (1505; 1605) a first cell group identifier from a network controller , the first cell group identifier representing a group of cells, characterized in that the cells in the group of cells are associated with each other based at least in part on a likelihood of each cell in the group of cells to cause interference at one or more remote wireless devices, the first wireless device (105-f) being associated with a first cell of the group of cells; transmitting (620; 1510; 1610) a first reference signal that is indicative of the first cell group identifier; receiving (1515; 1615), from the network controller and based at least in part on the first reference signal being part of an interfering transmission at a remote wireless device, a second cell group identifier representing a sub-group of the group of cells, the sub-group including the first cell; and transmitting (645; 1520; 1620) one or more reference signals that are indicative of the second cell group identifier.
An incontinence pad comprising: a. a topsheet having a body-facing surface and a garment-facing surface ; b. a backsheet having a body-facing surface and garment-facing surface ; c. an absorbent core having a front end portion , a central portion , and a rear end portion along its length, said core being disposed between said topsheet garment-facing surface and said backsheet body-facing surface, wherein said core comprises a) a first laminate which includes a first superabsorbent layer disposed onto a first distribution layer and b) a second laminate which includes a second distribution layer joined to a second superabsorbent layer ; wherein said first distribution layer is joined to said second distribution layer or said second superabsorbent layer ; wherein said pad exhibits a pad length of from 250 mm to 329 mm according to the Article Length Method; an Acquisition Time for a load of 20 ml of less than 8.5 seconds according to a Speed of Acquisition with Balloon Applied Pressure Method; a dry pad thickness of between 4.4 mm to 9.5 mm according to a Pad Thickness Method; and an Energy of Recovery at a load of 10 ml of from 6.2 mJ to 10 mJ according to a Bunch Compression Method. a. a topsheet having a body-facing surface and a garment-facing surface ; b. a backsheet having a body-facing surface and garment-facing surface ; c. an absorbent core having a front end portion , a central portion , and a rear end portion along its length, said core being disposed between said topsheet garment-facing surface and said backsheet body-facing surface, wherein said core comprises a) a first laminate which includes a first superabsorbent layer disposed onto a first distribution layer and b) a second laminate which includes a second distribution layer joined to a second superabsorbent layer ; wherein said first distribution layer is joined to said second distribution layer or said second superabsorbent layer ;
- Unit for managing (managing including, for example, an initial backup, subsequent backups, reading) technical information such as plans, figures, manuals, a visitors book, as-built documentation, or a maintenance file, of a site such as a building, a ship, a platform, or an industrial facility, said unit consisting of a case incorporating an electronic circuit comprising a non-volatile memory, a USB connector, and a processor controlled by a microprogram controlling the management of the inputs and outputs and of said memory, said microprogram comprising means for managing the inputs and outputs according to the standard USB protocol and for preventing the modification of information previously recorded in said non-volatile memory, characterized in that said means for preventing the modification of the previously recorded information comprises a memory for recording an addressing table containing the addresses of previously recorded information, the microprogram comprising a code for comparing the target address in the data package received via the USB connector for preventing registration if said target address belongs to said addressing table, and if not, for authorizing registration and recording said target address in the addressing table. said microprogram comprising means for managing the inputs and outputs according to the standard USB protocol and for preventing the modification of information previously recorded in said non-volatile memory, characterized in that said means for preventing the modification of the previously recorded information comprises a memory for recording an addressing table containing the addresses of previously recorded information, the microprogram comprising a code for comparing the target address in the data package received via the USB connector for preventing registration if said target address belongs to said addressing table, and if not, for authorizing registration and recording said target address in the addressing table.
An implantable prosthesis having an external surface at least a portion of which is an open-cell structure, the prosthesis made by the method comprising the steps of: (a) providing an implantable member having a surface; (b) applying a first layer of elastomer to at least a portion of the surface of the member; (c) applying a first layer of salt particles to the first layer of elastomer; (d) applying a second layer of elastomer to the first layer of salt particles ; (e) applying a second layer of salt particles to the second layer of elastomer; (f) curing the layers of elastomer; and (g) removing the salt particles to form an external surface at least a portion of which is an open-cell structure, wherein at least some of the salt particles within each salt particle layer are caused to fuse together prior to the steps of curing the elastomers and removing the salt particles . (a) providing an implantable member having a surface; (b) applying a first layer of elastomer to at least a portion of the surface of the member; (c) applying a first layer of salt particles to the first layer of elastomer; (d) applying a second layer of elastomer to the first layer of salt particles ; (e) applying a second layer of salt particles to the second layer of elastomer; (f) curing the layers of elastomer; and (g) removing the salt particles to form an external surface at least a portion of which is an open-cell structure,
User Equipment, UE, (130-1) comprising circuitry to: transmit a request to a serving evolved Node B, eNodeB, for permission to transmit to a group of peer UEs (130-2 - 130-n); receive a resource allocation assignment in response to the request, the resource allocation assignment specifying a group identifier, the group identifier identifying a group including the UE (130-1) and the group of peer UEs (130-2 - 130-n); and transmit a multicast transmission to the group of peer UEs (130-2 - 130-n) using a resource assigned by the serving eNodeB , wherein the circuitry is further arranged to transmit the request within a buffer status report, BSR, the request including a logical channel group identifier, LCGID, of the UE (130-1); and the group identifier is a multicast media access control-layer radio network temporary identifier, MC-RNTI, in accordance with a standard of the 3 rd Generation Partnership Project, 3GPP, family of standards for long term evolution, LTE. transmit a request to a serving evolved Node B, eNodeB, for permission to transmit to a group of peer UEs (130-2 - 130-n); receive a resource allocation assignment in response to the request, the resource allocation assignment specifying a group identifier, the group identifier identifying a group including the UE (130-1) and the group of peer UEs (130-2 - 130-n); and transmit a multicast transmission to the group of peer UEs (130-2 - 130-n) using a resource assigned by the serving eNodeB , wherein the circuitry is further arranged to transmit the request within a buffer status report, BSR, the request including a logical channel group identifier, LCGID, of the UE (130-1); and the group identifier is a multicast media access control-layer radio network temporary identifier, MC-RNTI, in accordance with a standard of the 3 rd Generation Partnership Project, 3GPP, family of standards for long term evolution, LTE.
An elevator system comprising: an elevator car arranged within an elevator shaft ; a controller configured to control movement of the elevator car ; a position reference system (234; 213) configured to provide a position of the elevator car within the elevator shaft; and at least one safety device configured to indicate, when triggered, a potential hazard within the elevator system ; wherein when an actual position of the elevator car cannot be determined using the position reference system (234; 213), the controller is configured to: calculate at least one potential position of the elevator car based on an assumed motion profile of the elevator car ; and characterized in that the controller is further configured to: allow the elevator car to move whilst no safety device , which corresponds to a potential position of elevator car is triggered; and stop movement of the elevator car when a safety device which corresponds to a potential position of the elevator car is triggered. an elevator car arranged within an elevator shaft ; a controller configured to control movement of the elevator car ; a position reference system (234; 213) configured to provide a position of the elevator car within the elevator shaft; and at least one safety device configured to indicate, when triggered, a potential hazard within the elevator system ; wherein when an actual position of the elevator car cannot be determined using the position reference system (234; 213), the controller is configured to: calculate at least one potential position of the elevator car based on an assumed motion profile of the elevator car ; and characterized in that the controller is further configured to: allow the elevator car to move whilst no safety device , which corresponds to a potential position of elevator car is triggered; and stop movement of the elevator car when a safety device which corresponds to a potential position of the elevator car is triggered. calculate at least one potential position of the elevator car based on an assumed motion profile of the elevator car ; and characterized in that the controller is further configured to: allow the elevator car to move whilst no safety device , which corresponds to a potential position of elevator car is triggered; and stop movement of the elevator car when a safety device which corresponds to a potential position of the elevator car is triggered.