mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a combustor of a turbomachine, the method comprising: injecting, with at least one fuel nozzle (40, 200), a first mixture of air and a first fuel containing diatomic hydrogen gas into a primary combustion zone of the combustor to generate a first flow of combustion gases having a first temperature; injecting, with one or more premix injectors disposed downstream of the at least one fuel nozzle (40, 200), a second mixture of air and a second fuel containing diatomic hydrogen gas into a secondary combustion zone of the combustor as a cross-flow to generate a second flow of combustion gases having a second temperature; and separately injecting a third fuel as a pure fuel into secondary combustion zone, the third fuel igniting and mixing with the first flow and the second flow of combustion gases (164, 166) to generate outlet combustion gases (34, 172) having a third temperature. injecting, with at least one fuel nozzle (40, 200), a first mixture of air and a first fuel containing diatomic hydrogen gas into a primary combustion zone of the combustor to generate a first flow of combustion gases having a first temperature; injecting, with one or more premix injectors disposed downstream of the at least one fuel nozzle (40, 200), a second mixture of air and a second fuel containing diatomic hydrogen gas into a secondary combustion zone of the combustor as a cross-flow to generate a second flow of combustion gases having a second temperature; and separately injecting a third fuel as a pure fuel into secondary combustion zone, the third fuel igniting and mixing with the first flow and the second flow of combustion gases (164, 166) to generate outlet combustion gases (34, 172) having a third temperature.
An extensometer structure comprising: a first extension arm having a first mount configured to support a first specimen engaging member; a second extension arm having a second mount configured to support a second specimen engaging member; characterized by a coupling assembly coupling the first and second extension arms (34, 36) together with a connecting member (76; 76') extending between the first and second extension arms (34,36) and pivotally connected to the first extension arm with a first pivot connection and pivotally connected to the second extension arm with a second pivot connection, and wherein the first and second pivot connections are disposed on each respective extension arm (34,36) between each corresponding mount (44,46) on each respective extension arm (34,36) and a remote end of each respective extension arm (34,36); a flexure assembly coupling a control arm to the coupling assembly and a rear coupling assembly (38;38';38") connecting remote ends of the extension arms (34,36) together. a first extension arm having a first mount configured to support a first specimen engaging member; a second extension arm having a second mount configured to support a second specimen engaging member; a coupling assembly coupling the first and second extension arms (34, 36) together with a connecting member (76; 76') extending between the first and second extension arms (34,36) and pivotally connected to the first extension arm with a first pivot connection and pivotally connected to the second extension arm with a second pivot connection, and wherein the first and second pivot connections are disposed on each respective extension arm (34,36) between each corresponding mount (44,46) on each respective extension arm (34,36) and a remote end of each respective extension arm (34,36); a flexure assembly coupling a control arm to the coupling assembly and a rear coupling assembly (38;38';38") connecting remote ends of the extension arms (34,36) together.
A patient transport and training device comprising: a mobile chassis for transporting a user; a support structure extending upwards from the chassis; at least one handle extending from the support structure for moving the device, and a foot support assembly (111, 116), wherein the foot support assembly (111, 116) includes a powered footplate member which vibrates when actuated, wherein the device further comprises a powered lifting mechanism comprising at least one lifting arm assembly and an actuator operative to raise and lower the at least one lifting arm assembly extending from the support structure to assist in lifting a person from a seated to a standing position, and that the at least one lifting arm assembly comprises at least one lifting arm and a user arm support connected thereto, characterized in that the device comprises a control unit to control operation of the powered footplate member, wherein the control unit includes a user input element for variable control on the basis of inputted commands, wherein the at least one handle includes input elements for the control unit. a mobile chassis for transporting a user; a support structure extending upwards from the chassis; at least one handle extending from the support structure for moving the device, and a foot support assembly (111, 116), wherein the foot support assembly (111, 116) includes a powered footplate member which vibrates when actuated, wherein the device further comprises a powered lifting mechanism comprising at least one lifting arm assembly and an actuator operative to raise and lower the at least one lifting arm assembly extending from the support structure to assist in lifting a person from a seated to a standing position, and that the at least one lifting arm assembly comprises at least one lifting arm and a user arm support connected thereto, characterized in that the device comprises a control unit to control operation of the powered footplate member, wherein the control unit includes a user input element for variable control on the basis of inputted commands, wherein the at least one handle includes input elements for the control unit.
A slider for a double-sided slide fastener with an automatic locking device, comprising: a body, having a first body, a second body opposed to the first body, and a third body connected to the first body and the second body, wherein the first body, the second body, and the third body define a space; an operating member, attached to the body, and having a first member being parallel to the first body and formed with a first groove and a second member being parallel to the second body and formed with a second groove, the operating member adapted to slide on the first body and the second body in a direction with respect to the body; a pawl member, being in the body, and having a locking pawl configured to retractably project to the space in accordance with a sliding operation of the operating member with respect to the body; a first pull-tab, attached to the first groove; and a second pull-tab, attached to the second groove, wherein a shaft portion of the first pull-tab can abut against an end portion (22, 23) of the first groove in the direction, and a shaft portion of the second pull-tab can abut against an end portion (22, 23) of the second groove in the direction, and the operating member has a third member connected to the first member and the second member, characterized in that the third body of the body includes a sliding groove, and the third member includes a sliding concave portion having a thickness substantially equal to that of each of the first and second grooves and adapted to fit into and slide in the sliding groove. a body, having a first body, a second body opposed to the first body, and a third body connected to the first body and the second body, wherein the first body, the second body, and the third body define a space; an operating member, attached to the body, and having a first member being parallel to the first body and formed with a first groove and a second member being parallel to the second body and formed with a second groove, the operating member adapted to slide on the first body and the second body in a direction with respect to the body; a pawl member, being in the body, and having a locking pawl configured to retractably project to the space in accordance with a sliding operation of the operating member with respect to the body; a first pull-tab, attached to the first groove; and a second pull-tab, attached to the second groove, wherein a shaft portion of the first pull-tab can abut against an end portion (22, 23) of the first groove in the direction, and a shaft portion of the second pull-tab can abut against an end portion (22, 23) of the second groove in the direction, and the operating member has a third member connected to the first member and the second member,
Method for manufacturing hyperpolarized glutamine, which comprises the steps of: (a) preparing a first mixture comprising (i) glutamine and (ii) Rb + or Cs + hydroxide, as a dry powder; (b) preparing a second mixture comprising the first mixture, (iii) a polarizing agent and (iv) an anhydrous solvent capable of dissolving said first mixture and said polarizing agent; (c) subjecting the second mixture to a dynamic nuclear polarization process to obtain a hyperpolarized mixture comprising said glutamine in hyperpolarized form. (a) preparing a first mixture comprising (i) glutamine and (ii) Rb + or Cs + hydroxide, as a dry powder; (b) preparing a second mixture comprising the first mixture, (iii) a polarizing agent and (iv) an anhydrous solvent capable of dissolving said first mixture and said polarizing agent; (c) subjecting the second mixture to a dynamic nuclear polarization process to obtain a hyperpolarized mixture comprising said glutamine in hyperpolarized form.
Monoclonal antibody or a fragment thereof that binds to the M2-1 protein of human respiratory syncytial virus, CHARACTERIZED in that it comprises the heavy chain variable region according to SEQ ID NO:3 (IgGV H -8A4/G9) and the light chain variable region according to SEQ ID NO:4 (IgκV L -8A4/G9).
A method for heating a medium that includes an object having a variable weight; said method comprising placing said medium including said object having said variable weight into a variable enclosure having adjustable dimensions, wherein the variable enclosure comprises a dryer drum (110, 126) having an anode plate (84, 102); initiating a heating process by subjecting said medium including said object having said variable weight to a variable AC electrical field in form of RF radiation; wherein said object substantially absorbs said medium in a first "cool" state; and wherein said object is substantially free from said medium in a second "heated" state; continuously measuring an impedance (Z, 68) of said medium including said object having said variable weight during said heating process, wherein said object comprises a load of clothing, wherein said medium comprises water, and wherein the impedance (Z, 68) includes an RF load resistance (R, 64); adjusting dimensions of said variable enclosure to optimize said heating process by moving said anode plate towards the load to minimize parasitic air/load capacitance (+jX) and to optimize the RF load resistance (R, 64) at an RF feed point (90, 125) of the anode plate (84, 102); adjusting the parameters of said variable AC electrical field based on the measured impedance (Z, 68) to optimize said heating process by optimizing the efficiency of the power transfer into the load; and controlling said heating process, wherein said heating process is completed when said object is transferred into said second "heated" state. placing said medium including said object having said variable weight into a variable enclosure having adjustable dimensions, wherein the variable enclosure comprises a dryer drum (110, 126) having an anode plate (84, 102); initiating a heating process by subjecting said medium including said object having said variable weight to a variable AC electrical field in form of RF radiation; wherein said object substantially absorbs said medium in a first "cool" state; and wherein said object is substantially free from said medium in a second "heated" state; continuously measuring an impedance (Z, 68) of said medium including said object having said variable weight during said heating process, wherein said object comprises a load of clothing, wherein said medium comprises water, and wherein the impedance (Z, 68) includes an RF load resistance (R, 64); adjusting dimensions of said variable enclosure to optimize said heating process by moving said anode plate towards the load to minimize parasitic air/load capacitance (+jX) and to optimize the RF load resistance (R, 64) at an RF feed point (90, 125) of the anode plate (84, 102); adjusting the parameters of said variable AC electrical field based on the measured impedance (Z, 68) to optimize said heating process by optimizing the efficiency of the power transfer into the load; and controlling said heating process, wherein said heating process is completed when said object is transferred into said second "heated" state.
An anti-counterfeiting pattern having an optically variable structure, comprising lithographic lines and gravure blind embossed relief lines printed on a carrier; the lithographic lines are a set of lithographic curve lines having a curvature, the widths of the lithographic curve lines changes from thick to thin, or thin to thick; the gravure blind embossed relief lines are a set of curve lines corresponding to the lithographic lines, and having the same curvature; the relief lines are overprinted on the lithographic lines with a width variation identical to that of said lithographic lines; the widths of the lithographic curve lines gradually and continuously changes from 200-500μm to 20-50μm, or gradually and continuously changes from 20-50μm to 200-500μm; characterized in that, curvatures of the lithographic curve lines continuously changes from 0.01-0.02mm -1 to 1-2mm -1; widths of the relief lines is slightly 2-5μm larger than that of the lithographic lines at the same point.
Bearing ring of a plain or rolling bearing, which bearing ring has an annular structure with a raceway, the bearing ring consisting of a main body, a support layer being applied to the main body at least in the region of the raceway, and a hard material layer, which forms the raceway surface, being applied to the support layer, characterized in that the support layer consists of a curable resin provided with metallic particles, the hard material layer consisting of nickel and the main body consisting of plastic.
A comparator, comprising: a differential input circuit connected to a first power source for delivering a first voltage (VDDH') and configured to output a signal when a voltage of an input signal is higher than a voltage of a reference signal; a voltage converting circuit configured to convert the output signal from the differential input circuit into a signal corresponding to a second voltage (VDDL') and to output this converted signal; a positive feedback circuit connected to a second power source for delivering the second voltage (VDDL') lower than the first voltage (VDDH'), and configured to receive the converted signal from the voltage converting circuit, to invert this signal, to speed up a transition speed of this inversion by a positive feedback and to output the inverted signal, wherein the differential input circuit is also connected to a negative bias voltage source for delivering a negative bias voltage such that the differential input circuit operates in an entire potential difference in the range between the first voltage (VDDH') and the negative bias voltage and the positive feedback circuit operates in a potential difference in the range between the second voltage (VDDL') and 0V. a differential input circuit connected to a first power source for delivering a first voltage (VDDH') and configured to output a signal when a voltage of an input signal is higher than a voltage of a reference signal; a voltage converting circuit configured to convert the output signal from the differential input circuit into a signal corresponding to a second voltage (VDDL') and to output this converted signal; a positive feedback circuit connected to a second power source for delivering the second voltage (VDDL') lower than the first voltage (VDDH'), and configured to receive the converted signal from the voltage converting circuit, to invert this signal, to speed up a transition speed of this inversion by a positive feedback and to output the inverted signal, wherein the differential input circuit is also connected to a negative bias voltage source for delivering a negative bias voltage such that the differential input circuit operates in an entire potential difference in the range between the first voltage (VDDH') and the negative bias voltage and the positive feedback circuit operates in a potential difference in the range between the second voltage (VDDL') and 0V.
Method for the production of a component or a structural part on-board a vehicle, comprising a substrate of polymeric material integrating electrical devices and connections, characterized in that it includes the steps of: - providing a composite material, comprising: a non-conductive polymeric matrix; a dispersed phase in the polymeric matrix comprising at least one promoter of carbonization adapted to form carbonaceous conductive structures; and a reinforcing fibre filler adapted to direct the distribution and orientation of said dispersed phase in the polymeric matrix; - injecting said composite material into a mould for forming the component or the structural part, - irradiating a laser beam on predetermined areas of the substrate of the component or structural part formed, in such a way as to cause by carbonization the formation of carbonaceous conductive structures, resulting in an improved electrical conductivity of said areas, and define conductive tracks integrated in the polymeric matrix and adapted to form electrical connections or electrical piezo-resistive devices; - co-moulding on said substrate at least one metal terminal for electrical connection to at least one end of said conductive tracks, located on an edge of the substrate, for connection to external signal distribution circuits: - providing a composite material, comprising: a non-conductive polymeric matrix; a dispersed phase in the polymeric matrix comprising at least one promoter of carbonization adapted to form carbonaceous conductive structures; and a reinforcing fibre filler adapted to direct the distribution and orientation of said dispersed phase in the polymeric matrix; a non-conductive polymeric matrix; a dispersed phase in the polymeric matrix comprising at least one promoter of carbonization adapted to form carbonaceous conductive structures; and a reinforcing fibre filler adapted to direct the distribution and orientation of said dispersed phase in the polymeric matrix; - injecting said composite material into a mould for forming the component or the structural part, - irradiating a laser beam on predetermined areas of the substrate of the component or structural part formed, in such a way as to cause by carbonization the formation of carbonaceous conductive structures, resulting in an improved electrical conductivity of said areas, and define conductive tracks integrated in the polymeric matrix and adapted to form electrical connections or electrical piezo-resistive devices; - co-moulding on said substrate at least one metal terminal for electrical connection to at least one end of said conductive tracks, located on an edge of the substrate, for connection to external signal distribution circuits:
A vehicle-body carrying apparatus configured to house and carry a vehicle body of an unmanned vehicle, the apparatus comprising: - a housing capable of housing the vehicle body; - a data collecting device configured to collect data relating to structural soundness of the vehicle body housed in the housing; - a diagnostic device configured to diagnose the structural soundness of the vehicle body on a basis of the collected data; and - an informing device configured to inform a user of a diagnostic result obtained by the diagnostic device, wherein the data collecting device comprises - a sensor configured to measure vibration generated in the vehicle body characterised in that the data collecting device also comprises a hammer configured to perform hammering against the vehicle body. - a housing capable of housing the vehicle body; - a data collecting device configured to collect data relating to structural soundness of the vehicle body housed in the housing; - a diagnostic device configured to diagnose the structural soundness of the vehicle body on a basis of the collected data; and - an informing device configured to inform a user of a diagnostic result obtained by the diagnostic device, - a sensor configured to measure vibration generated in the vehicle body characterised in that the data collecting device also comprises a hammer configured to perform hammering against the vehicle body.
Backmount frame of a cable termination device, in particular for installation in a frame, with the backmount frame (1, 1a, 1b) having or forming at least one fastening means for fastening the backmount frame (1, 1a, 1b) to the frame, with the fastening means having at least one abutment element in order for the fastening means to rest against or rest on a bearing surface of the frame, characterized in that the backmount frame (1, 1a, 1b) has or forms at least one cable guide means, it being possible to guide at least one partial section of a cable at a predetermined angle (α) obliquely to a reference plane of the backmount frame (1, 1a, 1b) by means of the at least one cable guide means, with the abutment element of the at least one fastening means being arranged in the reference plane.
A method for operating a motor vehicle, preferably a utility vehicle, comprising: detecting data relating to an operation and/or an environment of the motor vehicle; and evaluating the detected data in relation to a traction of the motor vehicle; the method is characterized by the following steps: outputting a setting suggestion for at least one vehicle component of the motor vehicle for increasing the traction of the motor vehicle based on the evaluating, wherein the setting suggestion is output by means of a human-machine interface; and setting the at least one vehicle component according to the setting suggestion when an operator of the motor vehicle confirms the setting suggestion by means of the human-machine interface. detecting data relating to an operation and/or an environment of the motor vehicle; and evaluating the detected data in relation to a traction of the motor vehicle; outputting a setting suggestion for at least one vehicle component of the motor vehicle for increasing the traction of the motor vehicle based on the evaluating, wherein the setting suggestion is output by means of a human-machine interface; and setting the at least one vehicle component according to the setting suggestion when an operator of the motor vehicle confirms the setting suggestion by means of the human-machine interface.