mhurhangee/ep-ind-claims huggingface dataset:
A method of modifying operation of a fuel control system for a gas turbine having a standard unloading sequence and a pre-defined minimum inlet pressure requirement associated with the standard unloading sequence, wherein the pre-defined minimum inlet pressure requirement is a function of compressor discharge pressure between full speed no load and base or peak load of the gas turbine, wherein a standard supply pressure requirement is a fixed number at any gas turbine load and wherein the pre-defined minimum inlet pressure requirement defines an operability window beneath the standard supply pressure requirement at which the gas turbine can be operated, the method comprising: modifying the fuel control system by inputting a modified unloading sequence onto a computing system operatively associated with the fuel control system, the modified unloading sequence comprising a series of operating modes, mode transfers, or a combination thereof that is different than the standard unloading sequence; and modifying the fuel control system by inputting a new defined minimum inlet pressure requirement for the modified unloading sequence onto the computing system, the new defined minimum inlet pressure requirement being less than the pre-defined minimum inlet pressure requirement thereby reducing a fuel supply pressure trip point for the gas turbine, wherein modified operation of the fuel control system using the modified unloading sequence and new defined minimum inlet pressure requirement allows the gas turbine to operate over an increased range of fuel supply pressure, characterised in that an extra operable region, which was previously inoperable, is available if the minimum inlet pressure requirement is defined over a loading or unloading range based on a gas fuel split. modifying the fuel control system by inputting a modified unloading sequence onto a computing system operatively associated with the fuel control system, the modified unloading sequence comprising a series of operating modes, mode transfers, or a combination thereof that is different than the standard unloading sequence; and modifying the fuel control system by inputting a new defined minimum inlet pressure requirement for the modified unloading sequence onto the computing system, the new defined minimum inlet pressure requirement being less than the pre-defined minimum inlet pressure requirement thereby reducing a fuel supply pressure trip point for the gas turbine, wherein modified operation of the fuel control system using the modified unloading sequence and new defined minimum inlet pressure requirement allows the gas turbine to operate over an increased range of fuel supply pressure, characterised in that an extra operable region, which was previously inoperable, is available if the minimum inlet pressure requirement is defined over a loading or unloading range based on a gas fuel split.
A thermal diffusivity measuring device with (a) a sample holder for accommodating a sample to be measured, (b) a light source that comprises a continuous wave laser which - is designed to emit an intensity-modulated laser beam, the intensity (I 48) of which is modulated with an intensity modulation frequency (f I), and - is arranged to emit the laser beam along a light path, (c) an optical system for directing the pulse of light in the light path onto the sample, (d) an infrared sensor for time-dependent detection of an infrared radiation intensity (I 22) emitted by the sample, and (e) an evaluation unit that is designed to automatically calculate the thermal diffusivity (α) of the sample on the basis of the time-dependent infrared radiation intensity (I 22) and the intensity modulation frequency (f I), characterised in that (f) the light source has a pulse light source and is designed to emit a pulse of light of a predetermined pulse energy in the light path, and (g) the evaluation unit is designed to automatically calculate the thermal diffusivity (α) of the sample on the basis of the time-dependent infrared radiation intensity(I 22) caused by the pulse of light. (a) a sample holder for accommodating a sample to be measured, (b) a light source that comprises a continuous wave laser which - is designed to emit an intensity-modulated laser beam, the intensity (I 48) of which is modulated with an intensity modulation frequency (f I), and - is arranged to emit the laser beam along a light path, - is designed to emit an intensity-modulated laser beam, the intensity (I 48) of which is modulated with an intensity modulation frequency (f I), and - is arranged to emit the laser beam along a light path, (c) an optical system for directing the pulse of light in the light path onto the sample, (d) an infrared sensor for time-dependent detection of an infrared radiation intensity (I 22) emitted by the sample, and (e) an evaluation unit that is designed to automatically calculate the thermal diffusivity (α) of the sample on the basis of the time-dependent infrared radiation intensity (I 22) and the intensity modulation frequency (f I), (f) the light source has a pulse light source and is designed to emit a pulse of light of a predetermined pulse energy in the light path, and (g) the evaluation unit is designed to automatically calculate the thermal diffusivity (α) of the sample on the basis of the time-dependent infrared radiation intensity(I 22) caused by the pulse of light.
A hydraulic power steering system for a vehicle comprising a hydraulic circuit carrying a power steering fluid and including a main loop having a fluid tank, a steering actuator and a pump which is driven by an electric motor assembly (7, 15), wherein the hydraulic circuit further comprises an auxiliary loop branching from main loop at a derivation point characterised by being designed to bring a portion of said fluid in thermal contact with the electric motor assembly (7, 15) so as to cool said assembly (7,. 15), and to carry said portion of fluid back to the main loop at a return point.
Length-adjustable tube device for a cleaning apparatus, comprising at least a first tube, a second tube, a third tube, wherein the first tube is guided in the second tube for longitudinal displacement therein and the second tube is guided in the third tube for longitudinal displacement therein, a first locking device which acts between between the first tube and the second tube, wherein in a releasable locking position of the first locking device, the first tube is fixed to the second tube with respect to a longitudinal displaceability, a second locking device which acts between between the second tube and the third tube, wherein in a releasable locking position of the second locking device, the second tube is fixed to the third tube with respect to a longitudinal displaceability, and a third locking device which acts on the first tube, the second tube and the third tube, wherein the third locking device has a releasable locking position in which the second tube is fixed to the third tube with respect to longitudinal displacement, and has an unlocking position in which a longitudinal displacement of the second tube relative to the third tube is released, wherein the third locking device is controlled, with respect to the transition from the locking position to the unlocking position, by a position of the first tube relative to the second tube and/or by a force with which the third locking device acts on the second tube.
Power tool braking device, in particular hand-held power tool braking device, for a portable power tool, having at least one braking unit which, in order to produce a braking force in a braking position of the braking unit, is intended to at least partially convert a relative movement between at least one driver element of the braking unit and at least one braking element of the braking unit into a further relative movement between the driver element and the braking element, characterized by at least one movement unit which is intended, in at least one operating state, to move the braking element in the direction of the driver element at least in order to produce a force component in the direction of the driver element.
A fixation clamp, more particularly for use in an external fixation system for holding bone fragments adjacent to each other with the help of fixation elements, comprising at least two clamping assemblies (20, 30) having at least one reception (71, 72, 73) to accommodate a fixation element along the longitudinal axis of the reception (71, 72, 73) and at least one locking element extending through the clamping assemblies (20, 30) for blocking the position of the clamping assemblies (20, 30) in a defined angular position, wherein between said locking element and said at least one clamping assembly there is arranged a washer, wherein as seen along the locking element, a first clamping assembly is followed by at least a second clamping assembly, wherein the locking element is in contact with the second clamping assembly by means of a thread and wherein locking element extends through the first clamping assembly wherein a spring provides an axial force onto the first clamping assembly which is pushed against said washer, characterized in that said clamping assembly (20, 30) comprises a first contact surface which is spherical and convex and in that said washer comprises a second contact surface which is spherical and concave, wherein the first contact surface is in contact with the second contact surface, and in that said washer comprises a cutout extending radially to the middle axis of a through opening through a sidewall such that said washer is mountable and demountable in substantial radial direction to the middle axis of the locking element.
Method for producing a wall of a construction made of concrete, wherein the wall is produced by application of concrete in superposed layers without lateral formwork, wherein at least one reinforced bar (7, 8) which passes through at least one part of the layers is introduced into the wall, wherein this part of the layers has been at least partially solidified when the reinforced bar (7, 8) is introduced, wherein, during the application of the concrete, superposed regions of superposed layers of the wall are left out in such a way that a channel passing through the layers is produced, and wherein, after at least a subportion of the wall has been produced, at least one reinforced bar (7, 8) is introduced into the channel and the free cross section formed between the wall of the channel and the at least one reinforced bar (7, 8) is filled with fill material, wherein the layers extend over at least half the length (g) of the wall from one longitudinal side of the wall to the opposite longitudinal side of the wall, and wherein the fill material used is a material other than that used for the production of the layers of the wall, wherein the fill material is mortar.
A manipulator, comprising: a link (121, 122); a joint unit (111, 112) configured to rotate the link; and at least one distance sensor (200a, 200b, 200c, 200d) configured to detect an obstacle entering in a monitoring space that is determined so as to include at least a rotating direction side of the link, the distance sensor being installed so that a sensing direction faces a direction parallel to a side surface of the link, characterized in that the at least one distance sensor (200a, 200b, 200c, 200d) includes a plurality of distance sensors (200a1, 200a2) installed so as to be back to back in a vicinity of a center of the side surface of the link in a longitudinal direction of the link and configured to respectively monitor a plurality of monitoring spaces (SR1, SR2). a link (121, 122); a joint unit (111, 112) configured to rotate the link; and at least one distance sensor (200a, 200b, 200c, 200d) configured to detect an obstacle entering in a monitoring space that is determined so as to include at least a rotating direction side of the link, the distance sensor being installed so that a sensing direction faces a direction parallel to a side surface of the link, characterized in that the at least one distance sensor (200a, 200b, 200c, 200d) includes a plurality of distance sensors (200a1, 200a2) installed so as to be back to back in a vicinity of a center of the side surface of the link in a longitudinal direction of the link and configured to respectively monitor a plurality of monitoring spaces (SR1, SR2).
A cleaning device for a liquid jet head comprising a holder for moving relatively to the liquid jet head including a jet plate provided with jet holes configured to jet liquid, and a guard member which covers the jet plate and is provided with a plurality of openings configured to expose respective jet holes, wherein the holder includes a plurality of jet sections configured to jet cleaning liquid toward the guard member, a plurality of wipe parts each of which has a width in a width direction perpendicular to a moving direction of the holder smaller than a width of a respective opening of the guard member, and which wipes the jet plate due to a movement of the holder, a first suction section disposed ahead of the jet section and the wipe parts in the moving direction of the holder, and a second suction section disposed posterior to the jet section and the wipe parts in the moving direction of the holder. a plurality of jet sections configured to jet cleaning liquid toward the guard member, a plurality of wipe parts each of which has a width in a width direction perpendicular to a moving direction of the holder smaller than a width of a respective opening of the guard member, and which wipes the jet plate due to a movement of the holder, a first suction section disposed ahead of the jet section and the wipe parts in the moving direction of the holder, and a second suction section disposed posterior to the jet section and the wipe parts in the moving direction of the holder.
An apparatus, comprising: one or more client devices; an email server; a logic circuit; and a transport component executing on the logic circuit to: receive, at the email server, a request from a client device of a non-registered entity to perform a function on an encrypted message, wherein the function is to forward or to reply to the encrypted message that is originally from a registered entity; identify information associated with the registered entity embedded in the request; authenticate that the embedded information of the registered entity embedded in the request is contained in an authentication information store; perform a scanning procedure on the forwarded or replied-to message from the non-registered entity; and execute the function based on the request if the embedded information is authenticated by encrypting the forwarded or replied-to message at a metadata level to include information associated with the registered entity and transporting the forwarded or replied-to message to a recipient. one or more client devices; an email server; a logic circuit; and a transport component executing on the logic circuit to: receive, at the email server, a request from a client device of a non-registered entity to perform a function on an encrypted message, wherein the function is to forward or to reply to the encrypted message that is originally from a registered entity; identify information associated with the registered entity embedded in the request; authenticate that the embedded information of the registered entity embedded in the request is contained in an authentication information store; perform a scanning procedure on the forwarded or replied-to message from the non-registered entity; and execute the function based on the request if the embedded information is authenticated by encrypting the forwarded or replied-to message at a metadata level to include information associated with the registered entity and transporting the forwarded or replied-to message to a recipient. receive, at the email server, a request from a client device of a non-registered entity to perform a function on an encrypted message, wherein the function is to forward or to reply to the encrypted message that is originally from a registered entity; identify information associated with the registered entity embedded in the request; authenticate that the embedded information of the registered entity embedded in the request is contained in an authentication information store; perform a scanning procedure on the forwarded or replied-to message from the non-registered entity; and execute the function based on the request if the embedded information is authenticated by encrypting the forwarded or replied-to message at a metadata level to include information associated with the registered entity and transporting the forwarded or replied-to message to a recipient.
A charging stand for a handheld vacuum cleaner, the charging stand comprising: a first part arranged to support the charging stand on a surface, a second part arranged to support the handheld vacuum cleaner, and an electrical contact arranged to electrically connect the handheld vacuum cleaner to a power supply, characterised in that the first part and the second part are hingedly interconnected, and in that the charging stand further comprises locking means arranged to fix the first part relative to the second part. a first part arranged to support the charging stand on a surface, a second part arranged to support the handheld vacuum cleaner, and an electrical contact arranged to electrically connect the handheld vacuum cleaner to a power supply, characterised in that the first part and the second part are hingedly interconnected, and in that the charging stand further comprises locking means arranged to fix the first part relative to the second part.
A rotor for an electric machine, which rotor has a circumferential surface and permanent magnets arranged in a circumferential direction of the circumferential surface at uniform distances, of which perpendicular to the circumferential direction adjacent permanent magnet form a permanent magnet structure on the circumferential surface, wherein a contour of the permanent magnet structure extending perpendicular to the circumferential direction (u) in an axial direction has a stepped section having a plurality of steps (22a-22d), wherein each step (22a-22d) has a first extent (23a-23d), which is oriented substantially perpendicularly to the circumferential direction (u), and a second extent (24a-24d), which is oriented parallel to the circumferential direction (u) and the first extent (23a-23d) connects through a second extent (24a-24d) with a first extent (23b-23e) of an adjacent step (22b-22e), wherein a length of the first extent of a first step differs from a length of the first extent of a second step adjacent to the first step and/or a length of the second extent of a first step differs from a length of the second extent of the second step and the stepped section is formed point-symmetrically to a point, as the center of symmetry, wherein the symmetry center is the cross section of the stepped section and a symmetry plane, which is oriented parallel to the circumferential direction (u) and runs through a center of the circumferential surface.
A compound represented by the following Chemical Formula 1: in Chemical Formula 1, A1 is a C 6-60 aromatic ring, A2 is a C 6-60 aromatic ring, A3 is a C 6-60 aromatic ring, or a C 2-60 heteroaromatic ring containing any one of N, O and S, A4 is a C 6-60 aromatic ring, X is N-R, where R is a substituted or unsubstituted C 6-60 aryl, Y is B; n1 is an integer of 1 to 4, and n2 is an integer of 1 to 4. A1 is a C 6-60 aromatic ring, A2 is a C 6-60 aromatic ring, A3 is a C 6-60 aromatic ring, or a C 2-60 heteroaromatic ring containing any one of N, O and S, A4 is a C 6-60 aromatic ring, X is N-R, where R is a substituted or unsubstituted C 6-60 aryl, Y is B; n1 is an integer of 1 to 4, and n2 is an integer of 1 to 4.
Electrical assembly for converting a DC voltage into an AC voltage, with the following features: a first supply voltage area for distributing a first DC supply voltage; a second supply voltage area for distributing a second DC supply voltage; at least one first power semiconductor having an input terminal connected to the first supply voltage area and an output terminal connected to an AC voltage output of the assembly; at least one second power semiconductor having an input terminal connected to the second supply voltage area and an output terminal connected to the AC voltage output of the assembly, wherein the first supply voltage area extends on the side of the first power semiconductor facing the input voltage terminal of the first power semiconductor, the second supply voltage area extends on the side of the second power semiconductor facing away from the input voltage terminal of the second power semiconductor; and wherein the second power semiconductor is arranged on an additional substrate, which comprises at a surface of the substrate a conductor structure which is connected to the output terminal of the second power semiconductor, wherein the substrate is arranged between the second power semiconductor and the second supply voltage area. a first supply voltage area for distributing a first DC supply voltage; a second supply voltage area for distributing a second DC supply voltage; at least one first power semiconductor having an input terminal connected to the first supply voltage area and an output terminal connected to an AC voltage output of the assembly; at least one second power semiconductor having an input terminal connected to the second supply voltage area and an output terminal connected to the AC voltage output of the assembly, wherein the first supply voltage area extends on the side of the first power semiconductor facing the input voltage terminal of the first power semiconductor, the second supply voltage area extends on the side of the second power semiconductor facing away from the input voltage terminal of the second power semiconductor; and wherein the second power semiconductor is arranged on an additional substrate, which comprises at a surface of the substrate a conductor structure which is connected to the output terminal of the second power semiconductor, wherein the substrate is arranged between the second power semiconductor and the second supply voltage area.
A method of performing a service group, SG, owner transfer procedure, the method comprising: transmitting (300,306,402) a SG owner transfer request message from a first personal network element, PNE, (P_1,2,3) to a first personal network, PN, gateway, GW (PG_A), from the first PN GW to a converged personal network service, CPNS, server, from the CPNS server to a second PN GW (PG_B), and from the second PN GW to a second PNE (P_4,5,6); and transmitting (310,314,318,322,404) a SG owner transfer response message from the second PNE to the second PN GW, from the second PN GW to the CPNS server, from the CPNS server to the first PN GW, and from the first PN GW to the first PNE; characterized by the SG owner transfer request message comprises at least one information element, IE, of a first PNE ID, a first PN ID, a first SG ID, a candidate PNE ID and a reason to change, or the SG owner transfer response message comprises at least one IE of an accept, a second PNE ID, a second PN ID and a second SG ID. transmitting (300,306,402) a SG owner transfer request message from a first personal network element, PNE, (P_1,2,3) to a first personal network, PN, gateway, GW (PG_A), from the first PN GW to a converged personal network service, CPNS, server, from the CPNS server to a second PN GW (PG_B), and from the second PN GW to a second PNE (P_4,5,6); and transmitting (310,314,318,322,404) a SG owner transfer response message from the second PNE to the second PN GW, from the second PN GW to the CPNS server, from the CPNS server to the first PN GW, and from the first PN GW to the first PNE; characterized by the SG owner transfer request message comprises at least one information element, IE, of a first PNE ID, a first PN ID, a first SG ID, a candidate PNE ID and a reason to change, or the SG owner transfer response message comprises at least one IE of an accept, a second PNE ID, a second PN ID and a second SG ID.