mhurhangee/ep-ind-claims huggingface dataset:
Method for protecting persons in the vicinity of an ETCS (European Train Control System) antenna of a rail vehicle emitting an HF field, characterised in that the ETCS antenna is held in the off state or switched into said state for a limited period of time by means of an uplink, wherein the on/off state is signalled optically and/or acoustically.
A vessel system for high-pressure reactions comprising: a plugged polymer cylinder reaction vessel wherein the reaction vessel is closed with a sliding plug, and wherein the reaction vessel is a microwave transparent polymer vessel with a radially extending pressure vent opening extending radially through the wall of said reaction vessel; a supporting frame into which said reaction vessel is received wherein said supporting frame has a vent tube that is aligned with said radially extending pressure vent opening in said reaction vessel when said reaction vessel is keyed into said supporting frame; complementing keying structure elements (56; 57) on said reaction vessel and on said frame to limit the orientation of said reaction vessel in said supporting frame and said radially extending pressure vent opening to a defined single position, said keying structure elements (56; 57) including defined corners in said supporting frame and a keyed portion of said reaction vessel for engaging said defined corners in said supporting frame; and wherein gases are released from the reaction vessel by sliding the sliding plug to open the radially extending pressure vent opening in the reaction vessel, but without removing the sliding plug from the reaction vessel or otherwise opening the reaction vessel. a plugged polymer cylinder reaction vessel wherein the reaction vessel is closed with a sliding plug, and wherein the reaction vessel is a microwave transparent polymer vessel with a radially extending pressure vent opening extending radially through the wall of said reaction vessel; a supporting frame into which said reaction vessel is received wherein said supporting frame has a vent tube that is aligned with said radially extending pressure vent opening in said reaction vessel when said reaction vessel is keyed into said supporting frame; complementing keying structure elements (56; 57) on said reaction vessel and on said frame to limit the orientation of said reaction vessel in said supporting frame and said radially extending pressure vent opening to a defined single position, said keying structure elements (56; 57) including defined corners in said supporting frame and a keyed portion of said reaction vessel for engaging said defined corners in said supporting frame; and wherein gases are released from the reaction vessel by sliding the sliding plug to open the radially extending pressure vent opening in the reaction vessel, but without removing the sliding plug from the reaction vessel or otherwise opening the reaction vessel.
Flame monitoring system for a burner of a gas appliance, the flame monitoring system comprising a thermocouple adapted for being arranged next to the burner and an electromagnetic gas valve adapted for opening or closing a gas passage to said burner, the electromagnetic gas valve being electrically connected with the thermocouple and said electromagnetic gas valve keeping the gas passage open when it receives a specific current from the thermocouple, the flame monitoring system also comprising a voltage meter for measuring the voltage of the thermocouple, characterised in that the flame monitoring system also comprises interruption means configured for interrupting current flow between the thermocouple and the electromagnetic gas valve during a predetermined time so that the voltage meter can measure the voltage of the thermocouple in vacuum, said predetermined time being such that the electromagnetic gas valve keeps the gas passage open during the interruption by means of the actual inertia of the electromagnetic gas valve.
A honeycomb structure comprising a honeycomb segment joined body having a plurality of honeycomb segments integrally joined with one another at a joint face of each of the honeycomb segments by means of a bonding material layer and having a plurality of cells functioning as fluid passages disposed in parallel with one another in a direction of central axis, wherein porosity in an outside portion of the bonding material layer, being a portion from the interface of the joint face of honeycomb segments to the point corresponding to 20% thickness of the total bonding material layer, is smaller than that in the central portion located on the inner side of the outside portion, characterized in that the bonding material layer contains an inorganic fiber with the inorganic fiber content ratio of 20 to 45% by mass and the shot content ratio of 10 to 50% by mass, and it has an average diameter of 1 to 20 μm in a cross-section perpendicular to the longer axial direction and an average length of 10 to 600 μm in the longer axial direction. wherein porosity in an outside portion of the bonding material layer, being a portion from the interface of the joint face of honeycomb segments to the point corresponding to 20% thickness of the total bonding material layer, is smaller than that in the central portion located on the inner side of the outside portion, characterized in that the bonding material layer contains an inorganic fiber with the inorganic fiber content ratio of 20 to 45% by mass and the shot content ratio of 10 to 50% by mass, and it has an average diameter of 1 to 20 μm in a cross-section perpendicular to the longer axial direction and an average length of 10 to 600 μm in the longer axial direction.
An elevator and/or escalator arrangement comprising a transportation infrastructure control network characterized in that, the transportation infrastructure control network is used for connecting elevator and escalator components and further comprises a transportation infrastructure control network controller which further comprises: at least one processor configured to execute computer program code; at least one memory configured to store computer programs and related data; at least one network interface configured to connect the transportation infrastructure control network controller with at least one network element; wherein, when connecting a generic peripheral device to the transportation infrastructure control network controller through a network element, the transportation infrastructure control network controller is configured to: receive an indication of attaching of a peripheral device; select a profile from a set of predetermined profiles for the attached peripheral device; and instruct the network element to assign the selected profile to the generic peripheral device. at least one processor configured to execute computer program code; at least one memory configured to store computer programs and related data; at least one network interface configured to connect the transportation infrastructure control network controller with at least one network element; wherein, when connecting a generic peripheral device to the transportation infrastructure control network controller through a network element, the transportation infrastructure control network controller is configured to: receive an indication of attaching of a peripheral device; select a profile from a set of predetermined profiles for the attached peripheral device; and instruct the network element to assign the selected profile to the generic peripheral device. receive an indication of attaching of a peripheral device; select a profile from a set of predetermined profiles for the attached peripheral device; and instruct the network element to assign the selected profile to the generic peripheral device.
Method for controlling a power converter including at least three arms connected in parallel, each arm comprising a series assembly of a unidirectional top switch and of a unidirectional bottom switch which are connected on either side of a connection point which is suitable for being connected to a phase of a power supply network, each unidirectional switch including a series assembly of a controlled circuit breaker and of a diode, the two diodes of a same arm being assembled in the same conducting direction, the method including a plurality of sequences each comprising at least the closure of a top circuit breaker and of a bottom circuit breaker of two separate arms, each sequence further comprising at least one freewheeling phase corresponding to the closure of the two circuit breakers of a same arm, characterized in that: - prior to each sequence start, the connection potentials of each arm are measured, - the measured potentials are compared, and the arm with the largest potential and the arm with the smallest potential are determined, - the closure of the top switch of the arm with the smallest measured electric potential and of the bottom switch of the arm with the largest measured electric potential is controlled, said closure being maintained for the entire sequence at least outside of the freewheeling phases. - prior to each sequence start, the connection potentials of each arm are measured, - the measured potentials are compared, and the arm with the largest potential and the arm with the smallest potential are determined, - the closure of the top switch of the arm with the smallest measured electric potential and of the bottom switch of the arm with the largest measured electric potential is controlled, said closure being maintained for the entire sequence at least outside of the freewheeling phases.
A prosthetic tricuspid valve (200, 300) having a smaller diameter end configured to be positioned in a right atrium and a larger, flared end configured to be positioned in a right ventricle, the prosthetic tricuspid valve comprising: a main body comprising an occluder having valve leaflets (270, 370); a first anterior flap (280, 380) extending laterally from an end of the main body, the first anterior flap to be positioned in the right ventricle; and a second anterior flap (280, 380) extending laterally from the end of the main body in a same direction as the first anterior flap, the second anterior flap to be positioned in the right ventricle. a main body comprising an occluder having valve leaflets (270, 370); a first anterior flap (280, 380) extending laterally from an end of the main body, the first anterior flap to be positioned in the right ventricle; and a second anterior flap (280, 380) extending laterally from the end of the main body in a same direction as the first anterior flap, the second anterior flap to be positioned in the right ventricle.
A method for scheduling in a wireless communication system, the method comprising: receiving a time division duplex uplink-downlink configuration, TDD UL-DL configuration, wherein the TDD UL-DL configuration configures each of subframes in a TDD frame to any one of a downlink subframe, a special subframe and an uplink subframe; and receiving a frame configuration information, the frame configuration information configuring each of the subframes in the TDD frame to a default subframe or a flexible subframe, wherein when the TDD UL-DL configuration indicates any one of uplink-downlink configurations included in a below table, subframes configured as the downlink subframe and subframes configured as the special subframe by the indicated uplink-downlink configuration cannot be configured as the flexible subframe by the frame configuration information, Uplink-downlink configuration Subframe number 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U D 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein D indicates a downlink subframe, S indicates a special subframe and U indicates an uplink subframe in the above table, and wherein the frame configuration information is received in the subframe 0 of the TDD frame. receiving a time division duplex uplink-downlink configuration, TDD UL-DL configuration, wherein the TDD UL-DL configuration configures each of subframes in a TDD frame to any one of a downlink subframe, a special subframe and an uplink subframe; and receiving a frame configuration information, the frame configuration information configuring each of the subframes in the TDD frame to a default subframe or a flexible subframe, wherein when the TDD UL-DL configuration indicates any one of uplink-downlink configurations included in a below table, subframes configured as the downlink subframe and subframes configured as the special subframe by the indicated uplink-downlink configuration cannot be configured as the flexible subframe by the frame configuration information, Uplink-downlink configuration Subframe number 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U D 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein D indicates a downlink subframe, S indicates a special subframe and U indicates an uplink subframe in the above table, and wherein the frame configuration information is received in the subframe 0 of the TDD frame.
A cup of a paper material having a fillable interior, formed by an at least partially conical tubular wall (14; 42) and a bottom wall (16; 44), wherein said bottom wall (16; 44) is joined to said tubular wall (14; 42) in the region of the lower end of said interior in a substantially liquid-tight manner, wherein said tubular wall (14; 42) delimiting said interior has at least one deforming entity (24; 48), and wherein said cup comprises an outer sleeve (28; 56) at least partially surrounding said tubular wall (14; 42), wherein said outer sleeve (28; 56) is at least partially spaced from said tubular wall (14; 42), wherein said outer sleeve (28; 56) is joined in material-bonding engagement to said tubular wall (14; 42) in a first region above said deforming entity (24; 48) and in a second region below said deforming entity (24; 48), characterized in that said joint by material-bonding engagement or at least one of the joints of tubular wall (14; 42) and outer sleeve (28; 56) is formed by means of an adhesive bead (32, 34; 66, 68) applied to said tubular wall (14; 42) and/or to said outer sleeve (28; 56), interposing spacer elements as required, in order to maintain a space between outer sleeve (28; 56) and tubular wall (14; 42) even in the joined condition.
A transport device (10; 800; 900), comprising: a wheel base assembly; at least two wheels (210; 1002) coupled to the wheel base assembly, each having a braking mechanism; a rotatable actuation mechanism positioned adjacent the braking mechanism; and a handle extending upward from the actuation mechanism such that the handle extends above a top surface of the wheel base assembly to allow a user to grab the handle, and configured to move the actuation mechanism between an open position at which no stopping force is applied, and a braking position at which the actuation mechanism causes the braking mechanism to apply, wherein the rotatable actuation mechanism includes a horizontal bar that is coupled to the handle and extends between each side of the wheel base assembly, and characterized in that the handle is U-shaped and extends from a surface of the horizontal bar vertically upwards. a wheel base assembly; at least two wheels (210; 1002) coupled to the wheel base assembly, each having a braking mechanism; a rotatable actuation mechanism positioned adjacent the braking mechanism; and a handle extending upward from the actuation mechanism such that the handle extends above a top surface of the wheel base assembly to allow a user to grab the handle, and configured to move the actuation mechanism between an open position at which no stopping force is applied, and a braking position at which the actuation mechanism causes the braking mechanism to apply, wherein the rotatable actuation mechanism includes a horizontal bar that is coupled to the handle and extends between each side of the wheel base assembly, and characterized in that the handle is U-shaped and extends from a surface of the horizontal bar vertically upwards.
A cable grommet element for sealed entry of an electricity cable into an housing, wherein the grommet element is configured to be physically and/or chemically bound to the electricity cable, wherein the grommet element comprises a body, an engagement element, a flexible projection, and a cable transit, wherein: - the body comprises a first wall, a second wall, and a side wall connecting the first wall to the second wall; - the engagement element protrudes from the first wall of the body, wherein the engagement element comprises an engagement element side wall and an engagement element top part, wherein the engagement element side wall comprises a flexible rim configured along a perimeter of the engagement element side wall; wherein the engagement element further comprises an alignment portion protruding from the engagement element side wall; - the flexible projection protrudes from the second wall of the body; and - the cable transit is configured for transit of the electricity cable from the side wall of the body to the engagement element top part. - the body comprises a first wall, a second wall, and a side wall connecting the first wall to the second wall; - the engagement element protrudes from the first wall of the body, wherein the engagement element comprises an engagement element side wall and an engagement element top part, wherein the engagement element side wall comprises a flexible rim configured along a perimeter of the engagement element side wall; wherein the engagement element further comprises an alignment portion protruding from the engagement element side wall; - the flexible projection protrudes from the second wall of the body; and - the cable transit is configured for transit of the electricity cable from the side wall of the body to the engagement element top part.
A pharmaceutical composition comprising an EGFR inhibitor and/or EGFR antibody in combination with a compound represented by the structure of formula D, for use in the treatment of a tumor that has developed resistance to an Epidermal Growth Factor Receptor (EGFR) inhibitor and/or EGFR antibody, or for preventing acquired resistance of a tumor to an EGFR inhibitor and/or EGFR antibody, or for preventing or delaying tumor recurrence following cease of treatment with an EGFR inhibitor and/or EGFR antibody, wherein the structure of compound D is represented below: including salts thereof; wherein the EGFR inhibitor is selected from the group consisting of AZD9291, erlotinib, afatinib, gefitinib, lapatinib, vandetanib, neratinib, icotinib, dacomitinib, poziotinib, CO-1686, HM61713 and AP26113; and wherein the EGFR antibody is selected from the group consisting of cetuximab, panitumumab, trastuzumab and necitumumab. wherein the EGFR inhibitor is selected from the group consisting of AZD9291, erlotinib, afatinib, gefitinib, lapatinib, vandetanib, neratinib, icotinib, dacomitinib, poziotinib, CO-1686, HM61713 and AP26113; and wherein the EGFR antibody is selected from the group consisting of cetuximab, panitumumab, trastuzumab and necitumumab.
An impedance measuring probe for use in a biopsy apparatus, comprising: a metal elongate member having a longitudinal axis, an elongate surface, a proximal end, a distal end, a proximal end portion that extends distally from the proximal end, and a distal end portion that extends proximally from the distal end, the impedance measuring probe characterized by: the elongate surface having a recessed longitudinal channel having a radial depth that longitudinally extends from the proximal end portion into the distal end portion; a plurality of conductive wire electrodes, each conductive wire electrode of the plurality of conductive wire electrodes having a connection end and a sensing end, each conductive wire electrode of the plurality of conductive wire electrodes located in and extends along the recessed longitudinal channel, the connection end extending from the proximal end portion of the metal elongate member and the sensing end being located at the distal end portion of the metal elongate member; and an insulation material disposed in the recessed longitudinal channel of the metal elongate member and around the conductive wire electrodes so as to electrically insulate the conductive wire electrodes, and with the sensing end of the conductive wire electrode being exposed at the distal end portion of the metal elongate member. the elongate surface having a recessed longitudinal channel having a radial depth that longitudinally extends from the proximal end portion into the distal end portion; a plurality of conductive wire electrodes, each conductive wire electrode of the plurality of conductive wire electrodes having a connection end and a sensing end, each conductive wire electrode of the plurality of conductive wire electrodes located in and extends along the recessed longitudinal channel, the connection end extending from the proximal end portion of the metal elongate member and the sensing end being located at the distal end portion of the metal elongate member; and an insulation material disposed in the recessed longitudinal channel of the metal elongate member and around the conductive wire electrodes so as to electrically insulate the conductive wire electrodes, and with the sensing end of the conductive wire electrode being exposed at the distal end portion of the metal elongate member.
An inkjet image recording apparatus with a recording head (22, 23, 24, 25) having a plurality of nozzles arranged transversely of a recording medium for discharging ink, the recording medium being transported relative to and in a direction perpendicular to a direction of arrangement of the nozzles, the apparatus correcting an ink discharge amount from each nozzle by detecting density of a chart (50, 60) formed by the recording head (22, 23, 24, 25) the apparatus comprising: a chart printing device for printing the chart (50, 60) having, recorded therein, a density detecting pattern (51, 61) with a plurality of density areas arranged in the transport direction of the recording medium by discharging the ink toward the recording medium at different discharge rates from the nozzles, and position detecting marks (52, 62, 63) formed in a particular one of the density areas of the density detecting pattern (51, 61) by suspending only for a fixed period of time, discharge from particular nozzles selected from the plurality of nozzles; an imaging device for acquiring an image of the chart (50, 60); and a discharge correcting device for correcting the ink discharge amount from each nozzle using image data of the chart (50, 60) acquired by the imaging device. a chart printing device for printing the chart (50, 60) having, recorded therein, a density detecting pattern (51, 61) with a plurality of density areas arranged in the transport direction of the recording medium by discharging the ink toward the recording medium at different discharge rates from the nozzles, and position detecting marks (52, 62, 63) formed in a particular one of the density areas of the density detecting pattern (51, 61) by suspending only for a fixed period of time, discharge from particular nozzles selected from the plurality of nozzles; an imaging device for acquiring an image of the chart (50, 60); and a discharge correcting device for correcting the ink discharge amount from each nozzle using image data of the chart (50, 60) acquired by the imaging device.