mhurhangee/ep-ind-claims huggingface dataset:
Laser system comprising a laser beam source that produces a laser beam and comprising an optical assembly (31; 51) arranged in the beam path of the laser beam behind the laser beam source, the optical assembly (31; 51) including: ▪ a collimating lens that reshapes the laser beam into a collimated laser beam, ▪ a conical mirror that has a reflecting lateral surface and reshapes the collimated laser beam propagating in the direction of the cone axis of the conical mirror into an annular beam in a propagation plane perpendicular to the cone axis, ▪ a lens system carrier (32; 52) with a first carrier element (33; 53) on which the collimating lens is mounted and a second carrier element (34; 54) on which the conical mirror is mounted and ▪ a connecting device (35; 55) with at least one connecting element (36, 37, 38, 39; 56, 57, 58, 59) connecting the first carrier element (33; 53) and the second carrier element (34; 54) together, the at least one connecting element (36-39; 56-59) being arranged askew relative to the cone axis of the conical mirror, characterised in that the connecting device (35; 55) has a number of 2n, n ≥ 1 connecting elements (36-39; 56-59), wherein n connecting elements are designed as first connecting elements (36, 38; 56, 58) and n connecting elements are designed as second connecting elements (37, 39; 57, 59) and wherein the first connecting elements (36, 38; 56, 58) and second connecting elements (37, 39; 57, 59) are arranged in such a manner that they are inclined in opposite directions in a circumferential direction of the conical mirror and are arranged alternately one behind the other in this circumferential direction of the conical mirror. ▪ a collimating lens that reshapes the laser beam into a collimated laser beam, ▪ a conical mirror that has a reflecting lateral surface and reshapes the collimated laser beam propagating in the direction of the cone axis of the conical mirror into an annular beam in a propagation plane perpendicular to the cone axis, ▪ a lens system carrier (32; 52) with a first carrier element (33; 53) on which the collimating lens is mounted and a second carrier element (34; 54) on which the conical mirror is mounted and ▪ a connecting device (35; 55) with at least one connecting element (36, 37, 38, 39; 56, 57, 58, 59) connecting the first carrier element (33; 53) and the second carrier element (34; 54) together, the at least one connecting element (36-39; 56-59) being arranged askew relative to the cone axis of the conical mirror,
An assembly having a locking electrical receptacle (10, 20, 820) and an electrical plug including at least one elongate extending plug structure (530, 600, 706), said receptacle for use in conjunction with said plug, this locking electrical receptacle comprising: receptacle structure (10, 20, 820) defining a receptacle for receiving said elongate extending plug structure; elongate gripping elements (606, 704, 705, 902) movably mounted on said receptacle structure, said gripping elements being disposed at least on opposite sides of said receptacle; and actuation structure (601-603, 701-703, 903), operatively associated with said elongate gripping elements, for forcing said elongate gripping elements into secure frictional engagement with opposing surfaces of said elongate extending plug structure responsive to a withdrawal force exerted on electrical plug and urging said elongate extending plug structure to withdraw from said receptacle; characterised in that said actuation structure (601-603, 701-703, 903) comprises a connecting structure (602-603, 701-702), said connecting structure comprising at least two cross-link spring members (603, 901) for interconnecting said gripping elements such that relative lateral movement of one of said gripping elements with respect to the other causes said gripping elements to be drawn towards one another so as to more firmly grip said elongate extending plug structure; wherein said connecting structure (602-603, 701-702) is pivotally interconnected to said gripping elements such that said gripping elements are constrained to maintain a substantially parallel relationship in connection with said relative lateral movement, wherein the angle between any of each of the axes defining the elongate gripping elements and any of each of the axes defining the cross-link spring members, is different from 90 degrees, wherein the receptacle (10, 20, 820) further comprises a release mechanism (607, 904-905) for reducing said frictional engagement of said gripping elements and said elongate extending plug structure when desired, and wherein said release mechanism (607, 904-905) comprises a release rod or a release shaft for allowing a user to initiate relative longitudinal movement as between said gripping elements. receptacle structure (10, 20, 820) defining a receptacle for receiving said elongate extending plug structure; elongate gripping elements (606, 704, 705, 902) movably mounted on said receptacle structure, said gripping elements being disposed at least on opposite sides of said receptacle; and actuation structure (601-603, 701-703, 903), operatively associated with said elongate gripping elements, for forcing said elongate gripping elements into secure frictional engagement with opposing surfaces of said elongate extending plug structure responsive to a withdrawal force exerted on electrical plug and urging said elongate extending plug structure to withdraw from said receptacle;
A transmission method, comprising: determining, by a terminal, scheduling request, SR, information with M bits, wherein the M is an integer greater than 1; and sending, by the terminal, the SR information with M bits and first uplink control information, UCI, to a base station simultaneously; wherein sending, by the terminal, the SR information with M bits and the first UCI to the base station simultaneously comprises: cascading, by the terminal, the SR information with M bits and a first part of CSI; performing, by the terminal, channel coding on cascaded SR information with M bits and first part of CSI, and a second part of CSI respectively; and sending, by the terminal, channel coded information to the base station; wherein the first UCI comprises the CSI and the CSI consists of the first part of CSI and the second part of CSI determining, by a terminal, scheduling request, SR, information with M bits, wherein the M is an integer greater than 1; and sending, by the terminal, the SR information with M bits and first uplink control information, UCI, to a base station simultaneously; wherein sending, by the terminal, the SR information with M bits and the first UCI to the base station simultaneously comprises: cascading, by the terminal, the SR information with M bits and a first part of CSI; performing, by the terminal, channel coding on cascaded SR information with M bits and first part of CSI, and a second part of CSI respectively; and sending, by the terminal, channel coded information to the base station; wherein the first UCI comprises the CSI and the CSI consists of the first part of CSI and the second part of CSI cascading, by the terminal, the SR information with M bits and a first part of CSI; performing, by the terminal, channel coding on cascaded SR information with M bits and first part of CSI, and a second part of CSI respectively; and sending, by the terminal, channel coded information to the base station; wherein the first UCI comprises the CSI and the CSI consists of the first part of CSI and the second part of CSI
A regulating device for a working machine of the kind which comprises at least four rubber wheels, of which at least two are drivable, for driving of the working machine on roads and in terrain, as well as a railway wheel unit (6, 7) in the area of a forward and rearward end, respectively, of the working machine, which each comprises at least two railway wheels and of which at least one can be raised and lowered by means of at least one power generating means to allow raising of the railway wheel unit, and by this allow driving of the working machine on roads and in terrain by means of the rubber wheels, as well as lowering of the railway wheel unit for bearing of the railway wheels against rails of a railway track during simultaneous bearing of also the rubber wheels against the rails for driving of the working machine on the railway track by guiding along the rails by means of the railway wheels and driving as well as braking against the rails by means of the rubber wheels, characterized in that it comprises a position regulating device by means of which the power generating means, in a driving position, is automatically controllable to maintain the railway wheels on a predetermined perpendicular distance (a, b) from an arbitrary reference point on the chassis of the working machine in a direction in relation to the working machine which represents the vertical direction when the working machine is positioned on a horizontal ground, such that it is ensured that the working machine, during driving along the railway track, is guided from and to some extent is carried by the railway wheels, while the remaining weight is carried by the rubber wheels such that these bear against the rails with sufficient force and allows driving and braking, respectively, of the working machine against the rails.
A fluorescence observation unit comprising: a light source a scanner configured to scan ultrashort pulsed laser light from the light source; a pupil projection lens that is configured to focus the ultrashort pulsed laser light scanned by the scanner; an image-forming lens that is configured to convert the ultrashort pulsed laser light, focused by the pupil projection lens, to substantially collimated light; an objective lens on which the ultrashort pulse laser light converted to substantially collimated light by the image-forming lens is incident and that is configured to focus the ultrashort pulse laser light converted to substantially collimated light by the image-forming lens on a sample; and a dichroic mirror that is configured to split off, from the optical path of the ultrashort pulsed laser light, fluorescence that is generated at a light-focusing position as a result of the ultrashort pulsed laser light being focused on the sample by the objective lens and is collected by the objective lens, characterized in that the image-forming lens includes a first optical system having positive refractive power and disposed adjacent to the objective lens, and a second optical system having negative refractive power and disposed at a position closer to the pupil projection lens than the first optical system is, and the dichroic mirror is disposed between the first optical system and the second optical system. a light source a scanner configured to scan ultrashort pulsed laser light from the light source; a pupil projection lens that is configured to focus the ultrashort pulsed laser light scanned by the scanner; an image-forming lens that is configured to convert the ultrashort pulsed laser light, focused by the pupil projection lens, to substantially collimated light; an objective lens on which the ultrashort pulse laser light converted to substantially collimated light by the image-forming lens is incident and that is configured to focus the ultrashort pulse laser light converted to substantially collimated light by the image-forming lens on a sample; and a dichroic mirror that is configured to split off, from the optical path of the ultrashort pulsed laser light, fluorescence that is generated at a light-focusing position as a result of the ultrashort pulsed laser light being focused on the sample by the objective lens and is collected by the objective lens, characterized in that
A system for monitoring a borehole in an earth formation, comprising: a borehole string configured to be disposed within the borehole, the borehole string configured to direct a fluid into the earth formation for storage in the earth formation, the fluid including carbon dioxide; at least one optical fiber sensor disposed on the borehole string at a fixed location relative to the borehole string, the optical fiber sensor including a plurality of measurement units disposed therein along a length of the optical fiber sensor, the plurality of measurement units configured to cause a wavelength shift in an interrogation signal received in the at least one optical fiber sensor due to at least one of a strain and a deformation of the borehole string; and at least one temperature sensor configured to measure a temperature at a plurality of locations along the length of the optical fiber sensor, the system being characterized by: a processor configured to transmit the interrogation signal to the at least one optical fiber sensor, calculate at least one of the strain and the deformation based on the wavelength shift, identify one or more elevated strain regions, and correlate temperature measurements with the elevated strain regions to identify a fluid leak in at least one of the borehole string and the formation. a borehole string configured to be disposed within the borehole, the borehole string configured to direct a fluid into the earth formation for storage in the earth formation, the fluid including carbon dioxide; at least one optical fiber sensor disposed on the borehole string at a fixed location relative to the borehole string, the optical fiber sensor including a plurality of measurement units disposed therein along a length of the optical fiber sensor, the plurality of measurement units configured to cause a wavelength shift in an interrogation signal received in the at least one optical fiber sensor due to at least one of a strain and a deformation of the borehole string; and at least one temperature sensor configured to measure a temperature at a plurality of locations along the length of the optical fiber sensor, the system being characterized by: a processor configured to transmit the interrogation signal to the at least one optical fiber sensor, calculate at least one of the strain and the deformation based on the wavelength shift, identify one or more elevated strain regions, and correlate temperature measurements with the elevated strain regions to identify a fluid leak in at least one of the borehole string and the formation. a processor configured to transmit the interrogation signal to the at least one optical fiber sensor, calculate at least one of the strain and the deformation based on the wavelength shift, identify one or more elevated strain regions, and correlate temperature measurements with the elevated strain regions to identify a fluid leak in at least one of the borehole string and the formation.
A compound of the following Formula 1: where A is a core including a polyalkylene oxide unit, B is a chain represented by the following Formula 2, m is an integer of 1 or more, n is an integer of 0 or more, and the sum of m and n (m+n) is 3 or more, wherein the core includes a polyethylene oxide unit and a polypropylene oxide unit: where A 1 to A 3 each independently represent an alkylene group, Q 1 and Q 2 represent an aliphatic or aromatic divalent residue, L 1 to L 4 represent linkers, x is an integer of 1 or more, y is an integer of 0 or more, and z is an integer of 1 or more.
A medical device for creating a region of heated tissue using temperature to monitor a desired profile of the region, the medical device, comprising: a shaft coupled to a handle, where the handle includes a connector for electrically coupling to a source of energy; a first temperature detecting element spaced axially and proximally along the shaft from a proximal end of an energy transfer portion located at a working end of the shaft; a second temperature detecting element spaced proximally from the first temperature detecting element; where the first and second temperature detecting elements are configured to independently and respectively provide a first and a second actual temperature measurement; and an energy controller capable of delivering energy from the source of energy to the energy transfer portion, the energy controller configured to control the delivering of the energy in response to comparing at least the first or second actual temperature measurements to at least one associated temperature, where the associated temperature correlates to a previously measured region of heated tissue having a known profile. a shaft coupled to a handle, where the handle includes a connector for electrically coupling to a source of energy; a first temperature detecting element spaced axially and proximally along the shaft from a proximal end of an energy transfer portion located at a working end of the shaft; a second temperature detecting element spaced proximally from the first temperature detecting element; where the first and second temperature detecting elements are configured to independently and respectively provide a first and a second actual temperature measurement; and an energy controller capable of delivering energy from the source of energy to the energy transfer portion, the energy controller configured to control the delivering of the energy in response to comparing at least the first or second actual temperature measurements to at least one associated temperature, where the associated temperature correlates to a previously measured region of heated tissue having a known profile.
A protein comprising one or more fragments of SEQ ID NO: 1202 of wherein said fragment(s): (a) comprise at least one antigenic determinant; and (b) comprise a sequence selected from: 131-AlaThrAspAlaGlyGluSerSerGlnProAlaAsnGlnProAspMetAlaAsnAlaAlaAspGlyMet-153 164-AsnAlaGlyAsnThrAlaAlaGlnGlyAlaAsnGlnAlaGly-177 246-PheGluLysLeuSerAspAlaAspLysIleSerAsnTyrLys-259 291-ProThrSerPheAlaArgPheArgArgSerAlaArg-302 18-CysGlyGlyGlyGlyGlyGlySerProAspValLysSerAlaAspThrLeuSerLysProAla-38 287-TyrLysProLysProThrSerPheAlaArgPheArgArgSerAlaArgSerArgArgSerLeuProAla-309 388-HisThrGluAsnGlyArgProTyrProThrArgGlyArgPheAlaAla-403 22-GlyGlyGlySerProAspValLysSerAlaAspThrLeuSerLysProAla-38 42-ValSerGluLysGluThrGluAlaLysGluAspAlaProGln-55 86-ValThrAlaAspAsnProLysAsnGluAspGluValAlaGlnAsnAspMetProGln-104 295-AlaArgPheArgArgSerAlaArgSerArgArgSerLeuPro-308 390-GluAsnGlyArgProTyrProThrArgGlyArgPheAlaAla-403 405-ValAspPheGlySerLysSerValAspGlyIleIleAspSerGlyAspAspLeuHis-423 466-TyrSerTyrArgProThrAspAlaGluLysGlyGly-477, and wherein said protein is not SEQ ID NOs: 1200, 1202, 1204, 3179, 3180, 3181, 3182, 3183, or 3184 of WO99/57280 (a) comprise at least one antigenic determinant; and (b) comprise a sequence selected from: 131-AlaThrAspAlaGlyGluSerSerGlnProAlaAsnGlnProAspMetAlaAsnAlaAlaAspGlyMet-153 164-AsnAlaGlyAsnThrAlaAlaGlnGlyAlaAsnGlnAlaGly-177 246-PheGluLysLeuSerAspAlaAspLysIleSerAsnTyrLys-259 291-ProThrSerPheAlaArgPheArgArgSerAlaArg-302 18-CysGlyGlyGlyGlyGlyGlySerProAspValLysSerAlaAspThrLeuSerLysProAla-38 287-TyrLysProLysProThrSerPheAlaArgPheArgArgSerAlaArgSerArgArgSerLeuProAla-309 388-HisThrGluAsnGlyArgProTyrProThrArgGlyArgPheAlaAla-403 22-GlyGlyGlySerProAspValLysSerAlaAspThrLeuSerLysProAla-38 42-ValSerGluLysGluThrGluAlaLysGluAspAlaProGln-55 86-ValThrAlaAspAsnProLysAsnGluAspGluValAlaGlnAsnAspMetProGln-104 295-AlaArgPheArgArgSerAlaArgSerArgArgSerLeuPro-308 390-GluAsnGlyArgProTyrProThrArgGlyArgPheAlaAla-403 405-ValAspPheGlySerLysSerValAspGlyIleIleAspSerGlyAspAspLeuHis-423 466-TyrSerTyrArgProThrAspAlaGluLysGlyGly-477, 131-AlaThrAspAlaGlyGluSerSerGlnProAlaAsnGlnProAspMetAlaAsnAlaAlaAspGlyMet-153 164-AsnAlaGlyAsnThrAlaAlaGlnGlyAlaAsnGlnAlaGly-177 246-PheGluLysLeuSerAspAlaAspLysIleSerAsnTyrLys-259 291-ProThrSerPheAlaArgPheArgArgSerAlaArg-302 18-CysGlyGlyGlyGlyGlyGlySerProAspValLysSerAlaAspThrLeuSerLysProAla-38 287-TyrLysProLysProThrSerPheAlaArgPheArgArgSerAlaArgSerArgArgSerLeuProAla-309 388-HisThrGluAsnGlyArgProTyrProThrArgGlyArgPheAlaAla-403 22-GlyGlyGlySerProAspValLysSerAlaAspThrLeuSerLysProAla-38 42-ValSerGluLysGluThrGluAlaLysGluAspAlaProGln-55 86-ValThrAlaAspAsnProLysAsnGluAspGluValAlaGlnAsnAspMetProGln-104 295-AlaArgPheArgArgSerAlaArgSerArgArgSerLeuPro-308 390-GluAsnGlyArgProTyrProThrArgGlyArgPheAlaAla-403 405-ValAspPheGlySerLysSerValAspGlyIleIleAspSerGlyAspAspLeuHis-423 466-TyrSerTyrArgProThrAspAlaGluLysGlyGly-477,
Vehicle control method, in which a route-side facility, during a starting run (SoM) of a vehicle, initially stipulates that the vehicle position (eP old) thereof is unreliable, characterised in that the route-side facility, in a configuration mode, stipulates that a new vehicle position (eP new) ascertained on the basis of a new position report (PR new) of the vehicle is reliable under each of the two following conditions (i, ii), and only if one of these two conditions (i, ii) is met: (i) if a new data point identifier (NID_LRBG new) ascertained on the basis of the new position report (PR new) differs from a previous data point identifier (NID_LRBG old) ascertained on the basis of a previous position report (PR old); (ii) if the new data point identifier (NID_LRBG new) does not differ from the previous data point identifier (NID_LRBG old), if a new item of direction information (Q_DLRBG new) ascertained on the basis of the new position report (PR new) also differs from a previous item of direction information (Q_DLRBG old) ascertained on the basis of the previous position report (PR old) and if additionally a new position confidence interval (P-CI new) ascertained on the basis of the new position report (PR new) is smaller than a previous position confidence interval (P-CI old) ascertained on the basis of the previous position report. (i) if a new data point identifier (NID_LRBG new) ascertained on the basis of the new position report (PR new) differs from a previous data point identifier (NID_LRBG old) ascertained on the basis of a previous position report (PR old); (ii) if the new data point identifier (NID_LRBG new) does not differ from the previous data point identifier (NID_LRBG old), if a new item of direction information (Q_DLRBG new) ascertained on the basis of the new position report (PR new) also differs from a previous item of direction information (Q_DLRBG old) ascertained on the basis of the previous position report (PR old) and if additionally a new position confidence interval (P-CI new) ascertained on the basis of the new position report (PR new) is smaller than a previous position confidence interval (P-CI old) ascertained on the basis of the previous position report.