mhurhangee/ep-ind-claims huggingface dataset:
A method of cleaning a section of a turbine system, the method comprising: removing a casing of the section of the turbine system, the casing surrounding at least: a rotor of the turbine system; a plurality of flow path components of the section of the turbine system, the plurality of flow path components coupled to one of the rotor or the casing; and a sump system in communication with the rotor of the turbine system; pressurizing the sump system in communication with the rotor of the turbine system; sealing a plurality of openings (62, 64, 66) formed in the rotor of the turbine system; exposing the rotor and the plurality of flow path components to steam to dry hydrocarbons formed on a surface of the rotor and a surface of the plurality of flow path components; and blasting the rotor and the plurality of flow path components with solid carbon dioxide to dislodge the dried hydrocarbons formed on the surface of the rotor and the surface of the plurality of flow path components. removing a casing of the section of the turbine system, the casing surrounding at least: a rotor of the turbine system; a plurality of flow path components of the section of the turbine system, the plurality of flow path components coupled to one of the rotor or the casing; and a sump system in communication with the rotor of the turbine system; a rotor of the turbine system; a plurality of flow path components of the section of the turbine system, the plurality of flow path components coupled to one of the rotor or the casing; and a sump system in communication with the rotor of the turbine system; pressurizing the sump system in communication with the rotor of the turbine system; sealing a plurality of openings (62, 64, 66) formed in the rotor of the turbine system; exposing the rotor and the plurality of flow path components to steam to dry hydrocarbons formed on a surface of the rotor and a surface of the plurality of flow path components; and blasting the rotor and the plurality of flow path components with solid carbon dioxide to dislodge the dried hydrocarbons formed on the surface of the rotor and the surface of the plurality of flow path components.
A system, comprising: a jacket device into which a wireless communicator may be inserted; and the wireless communicator, comprising: a modem operable to transmit and receive voice communication phone calls; a power amplifier coupled with said modem operable to dynamically apply a variable gain factor to voice communications transmitted by said modem, to produce an appropriate power output; and a controller coupled with said modem comprising a radiation monitor operable to monitor the power output of said power amplifier, the controller being operable to restrict operation of said modem, based on data provided by the radiation monitor, when the cumulative power output produced by said power amplifier exceeds a pre-designated daily cumulative power limit that is calibrated according to a specific absorption rate of said jacket device. a jacket device into which a wireless communicator may be inserted; and the wireless communicator, comprising: a modem operable to transmit and receive voice communication phone calls; a power amplifier coupled with said modem operable to dynamically apply a variable gain factor to voice communications transmitted by said modem, to produce an appropriate power output; and a controller coupled with said modem comprising a radiation monitor operable to monitor the power output of said power amplifier, the controller being operable to restrict operation of said modem, based on data provided by the radiation monitor, when the cumulative power output produced by said power amplifier exceeds a pre-designated daily cumulative power limit that is calibrated according to a specific absorption rate of said jacket device. a modem operable to transmit and receive voice communication phone calls; a power amplifier coupled with said modem operable to dynamically apply a variable gain factor to voice communications transmitted by said modem, to produce an appropriate power output; and a controller coupled with said modem comprising a radiation monitor operable to monitor the power output of said power amplifier, the controller being operable to restrict operation of said modem, based on data provided by the radiation monitor, when the cumulative power output produced by said power amplifier exceeds a pre-designated daily cumulative power limit that is calibrated according to a specific absorption rate of said jacket device.
An image pickup apparatus comprising a plurality of imaging optical systems (110a, b, 120a, b, 130a, b, 140a, b) having different focal lengths and each configured to form an optical image of an object, and a plurality of image sensors (210a-f) having image pickup areas each corresponding to one of the plurality of imaging optical systems and each configured to photoelectrically convert the optical image formed by a corresponding one of the imaging optical systems, the image pickup apparatus being configured to simultaneously capture a plurality of images by controlling the plurality of imaging optical systems and the plurality of image sensors, wherein each imaging optical system includes a focus lens unit configured to move in focusing and a fixed lens unit that is fixed in the focusing, the focus lens unit including a focus lens, and wherein the image pickup apparatus further comprises a focus driver configured to move a plurality of focus lens units by equal moving amounts, wherein the focus lenses of the imaging optical systems adjacent to each other in a direction perpendicular to each optical axis and having different focal lengths, having surface shapes different from each other, and wherein the following conditional expression is satisfied 0.8 < 1 − β Fi 2 β Ri 2 × f h 2 1 − β Fh 2 β Rh 2 × f i 2 < 1.2 where β Fi and β Fh are lateral magnifications of focus lens units in arbitrary imaging optical systems i and h among the plurality of imaging optical systems, β Ri and β Rh are lateral magnifications of entire image side units located on an image side of the focus lens units in the arbitrary imaging optical systems i and h, and f i and f h are focal lengths of the arbitrary imaging optical systems i and h.
A chimeric antigen receptor comprising an antigen binding domain of HA22, a transmembrane domain, and an intracellular T cell signaling domain, wherein the antigen binding domain comprises a light chain variable region comprising an amino acid sequence comprising SEQ ID NO: 1, wherein the antigen binding domain comprises a heavy chain variable region comprising an amino acid sequence comprising SEQ ID NO: 3.
An article comprising: a dental article having a surface for bonding the dental article to a tooth structure; a harderiable dental composition; and a compressible material bonded to the surface of the dental article and adapted to remain on the dental article during use, wherein the compressible material is a porous material selected from the group consisting of foams, sponges, nonwoven fabrics, glass wool, cotton fibers, cellulose fibers, and combinations thereof. a dental article having a surface for bonding the dental article to a tooth structure; a harderiable dental composition; and a compressible material bonded to the surface of the dental article and adapted to remain on the dental article during use, wherein the compressible material is a porous material selected from the group consisting of foams, sponges, nonwoven fabrics, glass wool, cotton fibers, cellulose fibers, and combinations thereof.
A non-combustible smoking element comprising: a pre-vapor formulation reservoir element (2222/2322) configured to contain a pre-vapor formulation material; a single heating element (2214/2314), the single heating element (2214/2314) coupled to the pre-vapor formulation reservoir element and configured to heat at least a portion of the pre-vapor formulation material into a vapor and provide the vapor to a first channel (2209/9); characterized in that the non-combustible smoking element further comprises: a tobacco containing element (2274/2374) defining at least a portion of the first channel, wherein the single heating element extends into the tobacco containing element such that the tobacco containing element (2274/2374) overlapping at least a portion of the single heating element (2214/2314), and wherein the tobacco containing element (2274/2374) is arranged to receive the vapor to enable the vapor to elute tobacco elements into a flow stream. a pre-vapor formulation reservoir element (2222/2322) configured to contain a pre-vapor formulation material; a single heating element (2214/2314), the single heating element (2214/2314) coupled to the pre-vapor formulation reservoir element and configured to heat at least a portion of the pre-vapor formulation material into a vapor and provide the vapor to a first channel (2209/9); characterized in that the non-combustible smoking element further comprises: a tobacco containing element (2274/2374) defining at least a portion of the first channel, wherein the single heating element extends into the tobacco containing element such that the tobacco containing element (2274/2374) overlapping at least a portion of the single heating element (2214/2314), and wherein the tobacco containing element (2274/2374) is arranged to receive the vapor to enable the vapor to elute tobacco elements into a flow stream.
A computer-implemented method of displaying a window (221, 222, 321, 322, 501, 502) on a display device, the method comprising: displaying a source window(221, 222, 321, 322, 501, 502), the source window comprising first content that is capable of being modified; minimizing the said source window (221, 222, 321, 322, 501, 502); displaying a destination window in the same display, wherein at least a portion of the destination window contains a thumbnail (323, 401, 404, 415, 507, 508, 509), the thumbnail including second content corresponding to at least a portion of the content of the source window; automatically displaying, in the said thumbnail (323, 401,404, 415, 507, 508, 509), a last content displayed by the source window prior to minimization; and modifying the second content of the thumbnail whenever the first content of the source window changes; receiving a first parameter for defining at least a portion of the source window, wherein said modifying comprises determining at least a portion of the source window to draw into the thumbnail based on said first parameter; and receiving a second parameter for defining at least a portion of the destination windows, wherein said modifying further comprises determining at least a portion of the destination window to render the thumbnail based on said second parameter.; wherein the modification of the source window is displayed in the thumbnail. displaying a source window(221, 222, 321, 322, 501, 502), the source window comprising first content that is capable of being modified; minimizing the said source window (221, 222, 321, 322, 501, 502); displaying a destination window in the same display, wherein at least a portion of the destination window contains a thumbnail (323, 401, 404, 415, 507, 508, 509), the thumbnail including second content corresponding to at least a portion of the content of the source window; automatically displaying, in the said thumbnail (323, 401,404, 415, 507, 508, 509), a last content displayed by the source window prior to minimization; and modifying the second content of the thumbnail whenever the first content of the source window changes; receiving a first parameter for defining at least a portion of the source window, wherein said modifying comprises determining at least a portion of the source window to draw into the thumbnail based on said first parameter; and receiving a second parameter for defining at least a portion of the destination windows, wherein said modifying further comprises determining at least a portion of the destination window to render the thumbnail based on said second parameter.; wherein the modification of the source window is displayed in the thumbnail.
A method in a network node of a communication system applying data transmission in time slots on a same frequency band for uplink and downlink transmissions to and from a user equipment, said node supporting access to at least a first and a second co-existing radio access network applying time-division duplex transmission on a same frequency carrier, wherein the second radio access network is an E-UTRAN and the first radio access network is another radio access network, characterised by assigning to each time slot an attribute distinguishing transmission mode and direction of transmission in said time slot, wherein said attribute comprises at least one value prohibiting the usage of said time slot to the user equipment when accessing said network node via the first radio access network, wherein said attribute comprises an indication for an inactive subframe in order for the user equipment not to decode control signalling sent on the downlink of the E-UTRAN.
A method of manufacturing a layer containing quantum dots, the layer comprising first regions where the quantum dots are active, and second regions where the quantum dots are inactive, the method comprising the steps of: a) depositing on a support a first layer of a matrix having quantum dots incorporated into it; b) depositing on the first layer a second resist layer; c) exposing the second layer to light through a mask delimiting, in top view, the first and second regions, and then developing the resin of the second layer in order to remove the resin of the second layer opposite the second regions, and to keep the resin of the second layer opposite the first regions; and d) removing the resin of the second layer opposite the first regions without removing the matrix of the first layer opposite the first and second regions. a) depositing on a support a first layer of a matrix having quantum dots incorporated into it; b) depositing on the first layer a second resist layer; c) exposing the second layer to light through a mask delimiting, in top view, the first and second regions, and then developing the resin of the second layer in order to remove the resin of the second layer opposite the second regions, and to keep the resin of the second layer opposite the first regions; and d) removing the resin of the second layer opposite the first regions without removing the matrix of the first layer opposite the first and second regions.
A composition for use in a method of (a) eliciting a CTL response against tumor cells presenting an epitopic peptide having the amino acid sequence of SEQ ID NO: 4 in a subject; or (b) stimulating an immune response in an immunologically competent animal, wherein said composition comprises an epitopic peptide having the amino acid sequence of SEQ ID NO: 4, or a derivative thereof, and wherein said derivative is a peptide having one amino acid difference from the epitopic peptide having the amino acid sequence of SEQ ID NO: 4. (a) eliciting a CTL response against tumor cells presenting an epitopic peptide having the amino acid sequence of SEQ ID NO: 4 in a subject; or (b) stimulating an immune response in an immunologically competent animal,
A method performed by a network node for providing a recommendation associated with a service to a wireless device, the network node being operable in a wireless communication network, the method comprising: - obtaining bandwidth information associated with a radio interface between a radio access node of a Radio Access Network, RAN, of the wireless communication network and the wireless device, - obtaining bandwidth information associated with a transport network of the wireless communication network, - determining available bandwidth for providing the service to the wireless device based on the obtained bandwidth information associated with the radio interface and the obtained bandwidth information associated with the transport network, wherein the method further comprises determining the recommendation based on at least the determined available bandwidth, and providing the recommendation to the wireless device. - obtaining bandwidth information associated with a radio interface between a radio access node of a Radio Access Network, RAN, of the wireless communication network and the wireless device, - obtaining bandwidth information associated with a transport network of the wireless communication network, - determining available bandwidth for providing the service to the wireless device based on the obtained bandwidth information associated with the radio interface and the obtained bandwidth information associated with the transport network,
A CHO cell modified to disrupt expression of one or more endogenous proteins selected from the group consisting of TIMP1, NID1-1, NID1-2, and LGALS3BP.
A ubiquitin-specific protease 1 inhibitor for use in a method for treating a human subject having, or at risk of developing, a cancer, the method comprising administering to the human subject an effective amount of said ubiquitin-specific protease 1 inhibitor, wherein the human subject is identified as having a BRCA1 and/or BRCA2 mutation, and the USP1 inhibitor is administered as a monotherapy.
An optical assembly, comprising: - a barrel defining a cavity having a center axis, the barrel having an inner wall provided with a set of internal threads; and - at least one optical subassembly, the at least one optical subassembly comprising a seat provided in the cavity and an optical element mounted in the cavity, the optical element having a first surface defining a curved abutment surface having a convex or a concave spatial profile and engaging the seat, and a second surface opposite to the first surface and having a spatial profile which is planar along at least a peripheral region of said second surface, the at least one optical subassembly further comprising a retaining ring inserted in the cavity and having a perimeter wall provided with a set of external threads engaging the internal threads of the inner wall of the barrel, the retaining ring having an abutment engaging the peripheral region of the second surface of the optical element, thereby securing the optical element between the seat and the retaining ring, the optical sub-assembly being configured for the optical element to roll or slide on the seat for the optical element to be self-centered in the cavity when the optical element is secured between the seat and the retaining ring; wherein the internal and external threads (42a, 42b) each have a load-bearing thread face, an intersection of each of said load-bearing thread faces with a plane comprising the center axis of the cavity being perpendicular to the center axis of the cavity. - a barrel defining a cavity having a center axis, the barrel having an inner wall provided with a set of internal threads; and - at least one optical subassembly, the at least one optical subassembly comprising a seat provided in the cavity and an optical element mounted in the cavity, the optical element having a first surface defining a curved abutment surface having a convex or a concave spatial profile and engaging the seat, and a second surface opposite to the first surface and having a spatial profile which is planar along at least a peripheral region of said second surface, the at least one optical subassembly further comprising a retaining ring inserted in the cavity and having a perimeter wall provided with a set of external threads engaging the internal threads of the inner wall of the barrel, the retaining ring having an abutment engaging the peripheral region of the second surface of the optical element, thereby securing the optical element between the seat and the retaining ring, the optical sub-assembly being configured for the optical element to roll or slide on the seat for the optical element to be self-centered in the cavity when the optical element is secured between the seat and the retaining ring;
A gear assembly support for use in a gas turbine engine, comprising a support member having an inner portion and an outer portion, one of the portions being configured to be coupled to a gear assembly and the other of the portions being configured to be coupled to a housing in a gas turbine engine, the support member including a plurality of removal features each having a plurality of engaging surfaces (122, 124); characterised in that: the removal features each comprise a stem and a cross member; the engaging surfaces (122, 124) are on the cross member on opposite sides of the stem; and the engaging surfaces (122, 124) facilitate a pulling force on the support member in a direction parallel to an axis through a center of the support member, the engaging surfaces (122, 124) on each of the removal features being oriented relative to each other to resist any bending moment on the support member during application of the pulling force. the removal features each comprise a stem and a cross member; the engaging surfaces (122, 124) are on the cross member on opposite sides of the stem; and the engaging surfaces (122, 124) facilitate a pulling force on the support member in a direction parallel to an axis through a center of the support member, the engaging surfaces (122, 124) on each of the removal features being oriented relative to each other to resist any bending moment on the support member during application of the pulling force.
A user equipment method for device-to-device communication, comprising: upon requiring to perform device-to-device communication with user equipment from a plurality of device-to-device communication groups, transmitting a scheduling announcement for each of said plurality of groups within a single sub-frame, each scheduling announcement identifying resources within which data intended for user equipment belonging to each group is to be transmitted; and transmitting data for device-to-device communication with user equipment belonging to each group using said resources identified by each scheduling announcement for that group. upon requiring to perform device-to-device communication with user equipment from a plurality of device-to-device communication groups, transmitting a scheduling announcement for each of said plurality of groups within a single sub-frame, each scheduling announcement identifying resources within which data intended for user equipment belonging to each group is to be transmitted; and transmitting data for device-to-device communication with user equipment belonging to each group using said resources identified by each scheduling announcement for that group.
A method of manufacturing flexible pipe body, comprising the step of: winding at least one composite body having a substantially helical innate shape around an underlying pipe layer characterized in that the pitch of winding substantially matches the pitch of the innate state of the composite body.