mhurhangee/ep-ind-claims huggingface dataset:
Filler head for a storage system comprising a body to be mounted inclined according to a predetermined angle (α) regarding the gravity direction, called the filling direction, and including a main part closed by a cover part so as to form a cavity in which a separating device is received, the filler head being configured to receive, in a cylindrical wall of the separating device extending around the filling direction, a distribution nozzle of a fluid with an automatic stop sensor (39a, 39b) to prevent overfilling of the filler head, the filler head being configured to be connected to a filling line and a venting line of a fluid tank and the separating device being arranged to improve the partitioning of the flow coming from the venting line and the flow going to the filling line, the separating device further comprising at least one flange, protruding transversally from the outside surface of the cylindrical wall and mounted in the cavity upstream of the sensor (39a, 39b) of the nozzle when received in the cylindrical wall and considering the filling direction, so as to ensure the fluid outgoing from the nozzle present in the filler head has limited possibility to spit back from the filler head without affecting the sensor (39a, 39b) work, characterised in that the flange of the separating device is mounted between a back portion of the body and a front portion of the body, located in an opposite direction to the back portion when considering the filling direction to form a shield substantially above all the upper surface of the fluid present in the filler head and in that the venting line is connected with the filler head in the back portion of the body and the lowest half cylindrical wall when considering the gravity direction has no through recess downstream of the flange when considering the filling direction on the external surface facing the front portion of the body so as to ensure a laminar flow of the fluid from the nozzle received in the cylindrical wall towards the filling line.
A contactless electric power supply device for board manufacturing equipment, the contactless electric power supply device comprising a contactless electric power supply element provided on a fixed section, a high frequency power source circuit for supplying high frequency power to the contactless electric power supply element on the fixed section, a contactless electric power reception element for receiving high frequency electric power in a contactless manner which is facing and separated from the contactless electric power supply element and which is provided on a movable section movably mounted on the fixed section, an electric power reception circuit which supplies electric power to a current consumer (81, 82) on the movable section after converting the high-frequency power which the contactless electric power reception element received; wherein the contactless electric power reception element has a heat radiating layer or heat radiating surface which radiates the heat generated by and transferred from the current consumer (81, 82) with high emissivity in the surface facing and separated from the contactless electric power supply element, the contactless electric power supply element has a heat absorbing layer or heat absorbing surface which absorbs heat with a high absorption rate in the surface facing and separated from the contactless electric power reception element, such that some of the heat generated by the current consumer (81, 82) is transferred from the contactless electric power reception element to the contactless electric power supply element and then diffused at the fixed section side.
A terminal comprising: a receiving section adapted to receive downlink control information, DCI, including information about transmission of a code block group, CBG; and a control section adapted to control reception of the CBG based on the information about transmission of the CBG, wherein a DCI format used in scheduling of a transport block for initial transmission is common with a DCI format used in scheduling of a CBG for retransmission, the transport block for initial transmission includes the CBG for retransmission, and wherein the control section is adapted to determine which CBG is scheduled by using a search space to monitor the DCI. a receiving section adapted to receive downlink control information, DCI, including information about transmission of a code block group, CBG; and a control section adapted to control reception of the CBG based on the information about transmission of the CBG, wherein a DCI format used in scheduling of a transport block for initial transmission is common with a DCI format used in scheduling of a CBG for retransmission, the transport block for initial transmission includes the CBG for retransmission, and wherein the control section is adapted to determine which CBG is scheduled by using a search space to monitor the DCI.
A vehicle structure equipped with a seatbelt device, wherein a pretensioner for retracting a webbing to restrain a passenger is provided on a panel of a vehicle body, and an interior material covering the pretensioner is provided on a side facing a vehicle interior, characterized in that: one of the interior material and the panel has a dividing wall formed thereon to enclose the pretensioner and partition a gap between the panel and the interior material. one of the interior material and the panel has a dividing wall formed thereon to enclose the pretensioner and partition a gap between the panel and the interior material.
A method by a terminal in a TDD wireless communication system, the method comprising: receiving a first message including a first uplink/downlink, UL/DL, configuration for a primary cell, PCell, from a base station; receiving a second message including a second UL/DL configuration for a secondary cell, SCell, from the base station, wherein the second UL/DL configuration is different from the first UL/DL configuration; receiving a physical downlink shared channel, PDSCH, on a first subframe of the SCell from the base station; and transmitting a hybrid automatic repeat request-acknowledge, HARQ-ACK, corresponding to the PDSCH on a second subframe to the base station, wherein the second subframe is determined based on the first UL/DL configuration for the PCell, if the scheduling type for the terminal is a cross carrier scheduling and the UL subframes of the SCell are a subset of the UL subframes of the PCell, characterized in that the method further comprising: the second subframe is determined based on a UL/DL configuration 4, if the scheduling type for the terminal is a self scheduling and the first UL/DL configuration for the PCell is a UL/DL configuration 3 and the second UL/DL configuration for the SCell is a UL/DL configuration 1. receiving a first message including a first uplink/downlink, UL/DL, configuration for a primary cell, PCell, from a base station; receiving a second message including a second UL/DL configuration for a secondary cell, SCell, from the base station, wherein the second UL/DL configuration is different from the first UL/DL configuration; receiving a physical downlink shared channel, PDSCH, on a first subframe of the SCell from the base station; and transmitting a hybrid automatic repeat request-acknowledge, HARQ-ACK, corresponding to the PDSCH on a second subframe to the base station, wherein the second subframe is determined based on the first UL/DL configuration for the PCell, if the scheduling type for the terminal is a cross carrier scheduling and the UL subframes of the SCell are a subset of the UL subframes of the PCell, characterized in that the method further comprising: the second subframe is determined based on a UL/DL configuration 4, if the scheduling type for the terminal is a self scheduling and the first UL/DL configuration for the PCell is a UL/DL configuration 3 and the second UL/DL configuration for the SCell is a UL/DL configuration 1.
A device for forming coatings on surfaces of a component, band-shaped material, or tool, in which at least one wire-shaped or band-shaped material (2.1 and/or 2.2) used for forming the respective coating forms a cathode and/or an anode that are connected to an electrical direct current voltage source and between which an electric arc is formed, wherein wire-shaped or band-shaped material (2.1 and/or 2.2) may be fed by means of a feed device; and in the process melted and/or evaporated material of the wire-shaped or band-shaped material (2.1 and/or 2.2) flows, by means of a gas jet of a gas or gas mixture, through an inlet into the interior of a chamber that can be heated to a temperature that is at least equal to the evaporation temperature of the at least one material used for the coating or of the material with the respectively highest evaporation temperature, and in the process the material(s) completely evaporate(s) and exits through at least one opening present on the chamber and impinges on the surface to be coated of the component or tool for forming the respective coating; characterized in that the chamber is formed in the shape of a cyclone separator.
The use of an inorganic material for improving the reheat characteristics of a polymeric material, said inorganic material being selected from titanium nitride, indium tin oxide, reduced indium tin oxide and antimony tin oxide.
A method of preparing a crimped tow of cellulose acetate filaments comprising the steps of: a) providing cellulose acetate dope b) forming filaments from the dope c) applying at least one additive to the filaments d) crimping the filaments to form a crimped tow wherein the at least one additive is capable of removing a component from cigarette smoke and wherein the at least one additive comprises an acidic compound or an alkaline compound. a) providing cellulose acetate dope b) forming filaments from the dope c) applying at least one additive to the filaments d) crimping the filaments to form a crimped tow wherein the at least one additive is capable of removing a component from cigarette smoke and wherein the at least one additive comprises an acidic compound or an alkaline compound.
A rotary tedder having a side segment pivotally attached in a first folding joint to a main frame, wherein the main frame and the side segment are supported by support wheels and the side segment is constructed of a plurality of side brackets (6, 7, 8, 9), which are in a plurality of further folding joints (10, 11, 12) attached to each other, wherein a first side bracket is pivotally attached to the main frame in the first folding joint, a second side bracket is pivotally attached to the first side bracket in a second folding joint and a third side bracket is pivotally attached to the second side bracket in a third folding joint, wherein on each side bracket there is a rotor with spring tines and all rotors are driven by a drive, which leads from a tractor via a PTO shaft to a drive on the main frame through the plurality of side brackets (6, 7, 8, 9) and wherein between the main frame and a scissor lever a lift mechanism is fitted, characterized in that the lift mechanism is comprised of a hydraulic segment comprised of a one-way cylinder, which is via a piston pivotally attached at a first pivoting joint on the main frame and is connected to a first two-way cylinder which is via a piston pivotally attached to a pivoting segment, wherein the pivoting segment has a first joint, a second joint and a third joint and can rotate in the third joint on the second side bracket and a second two-way cylinder is pivotally attached to the pivoting segment and to a the second pivoting joint of the scissor lever, which is mounted on the second and third side brackets (7, 8).
Method for generating heat, the generation of the heat being effected by at least one combustion process within a combustion space within a combustion chamber, characterised in that at least three fuels of different aggregate state, gaseous, liquid and solid, are burnt to generate the heat, whereat no structural changes have to be made to the apparatus, within which the at least one combustion process takes place and which contains an ignition device, in order to change from one fuel to another fuel or in order to change the mixing ratio of the fuel combination, and whereat one of the fuels is ignited by the ignition device and then in turn ignites the other two fuels.
A planet carrier for a planetary gear train with a carrier disc, at least two bearing journals and at least two bearing bores, wherein the bearing journals can be combined with in each case a first planet wheel to form a first gear reduction ratio, and the bearing bores with in each case a second planet wheel to form a second gear reduction ratio, characterised in that the bearing journals are formed in one piece with the carrier disc.
A solar unit for operation on, in particular, agricultural open areas, comprising a plurality of photovoltaic modules (11, 12, 13) and comprising a frame construction bearing the photovoltaic modules (11, 12, 13), characterised in that the frame construction is a mobile frame construction which is positioned freely on the ground, and in that for ballasting the solar unit the frame construction has storage pipes (17, 18) which are configured as liquid storage devices for a liquid. the frame construction is a mobile frame construction which is positioned freely on the ground, and in that for ballasting the solar unit the frame construction has storage pipes (17, 18) which are configured as liquid storage devices for a liquid.
A combustor comprising: an annular combustor chamber formed between an inner liner and an outer liner spaced apart from the inner liner; and an annular fuel manifold having fuel nozzles distributed circumferentially on the fuel manifold; the fuel manifold and fuel nozzles being positioned entirely inside the combustion chamber; wherein the fuel manifold is connected to and supported by at least one of the liners (20,30) of the combustor; the inner liner and outer liner each have an upstream radial portion (21',31') receiving at least a portion of the fuel manifold; the combustor further comprising: radial pins connected to a support portion of the annular combustor chamber defined at a junction of the liners (20,30) at the upstream radial portions (21',31') and connected to the fuel manifold. an annular combustor chamber formed between an inner liner and an outer liner spaced apart from the inner liner; and an annular fuel manifold having fuel nozzles distributed circumferentially on the fuel manifold; the fuel manifold and fuel nozzles being positioned entirely inside the combustion chamber; wherein the fuel manifold is connected to and supported by at least one of the liners (20,30) of the combustor; the inner liner and outer liner each have an upstream radial portion (21',31') receiving at least a portion of the fuel manifold; the combustor further comprising: radial pins connected to a support portion of the annular combustor chamber defined at a junction of the liners (20,30) at the upstream radial portions (21',31') and connected to the fuel manifold.
A switch device, comprising: a cylindrical movable lever-portion that is operable in multiple directions; a unit case that supports the movable lever-portion; and a flexible printed circuit board routed from an inside of the movable lever-portion to an inside of the unit case, wherein a routed portion of the flexible printed circuit board to be routed inside the unit case comprises a stress absorber configured to absorb a stress applied to the flexible printed circuit board, and wherein the stress absorber comprises a plurality of curved portions (31, 32) curved in opposite directions to each other characterised in that the stress absorber deforms due to bend in a direction crossing the longitudinal direction of the flexible printed circuit board at the time of operation of the movable lever-portion. a cylindrical movable lever-portion that is operable in multiple directions; a unit case that supports the movable lever-portion; and a flexible printed circuit board routed from an inside of the movable lever-portion to an inside of the unit case, wherein a routed portion of the flexible printed circuit board to be routed inside the unit case comprises a stress absorber configured to absorb a stress applied to the flexible printed circuit board, and wherein the stress absorber comprises a plurality of curved portions (31, 32) curved in opposite directions to each other characterised in that the stress absorber deforms due to bend in a direction crossing the longitudinal direction of the flexible printed circuit board at the time of operation of the movable lever-portion.
A multi-junction photovoltaic device comprising: a first photovoltaic sub-cell comprising a photoactive region comprising a layer of perovskite material; a second photovoltaic sub-cell comprising a photoactive silicon absorber; and an intermediate region disposed between and connecting the first photovoltaic sub-cell and the second photovoltaic sub-cell; wherein the intermediate region comprises an interconnect layer, characterised in that the interconnect layer comprises a two-phase material comprising elongate silicon nanocrystals embedded in a silicon oxide matrix; wherein the elongate silicon nanocrystals are doped, with either n-type or p-type doping; and wherein a longitudinal axis of the elongate silicon nanocrystals is substantially perpendicular to opposing surfaces of the first photovoltaic sub-cell and the second photovoltaic sub-cell. a first photovoltaic sub-cell comprising a photoactive region comprising a layer of perovskite material; a second photovoltaic sub-cell comprising a photoactive silicon absorber; and an intermediate region disposed between and connecting the first photovoltaic sub-cell and the second photovoltaic sub-cell; wherein the intermediate region comprises an interconnect layer, characterised in that the interconnect layer comprises a two-phase material comprising elongate silicon nanocrystals embedded in a silicon oxide matrix; wherein the elongate silicon nanocrystals are doped, with either n-type or p-type doping; and wherein a longitudinal axis of the elongate silicon nanocrystals is substantially perpendicular to opposing surfaces of the first photovoltaic sub-cell and the second photovoltaic sub-cell.
Operating method in a vehicle, in which first graphical data are displayed in a first region of a display surface in the interior of the vehicle, second graphical data are displayed in a second region of the display surface, wherein the first graphical data are associated with the second graphical data, a position of an actuation element in a detection space that is associated with the second region of the display surface is detected, and the position of the actuation element is associated with a first portion of the second graphical data, wherein the first portion of the second graphical data is preselected, characterized in that the preselection relates to a selection of a dataset within a set of datasets that are visualized by the second graphical data in the second region of the display surface, information is associated with the preselected dataset and first graphical data are generated for a preview in a display mode in the first region of the display surface depending on the preselected dataset, wherein the information associated with the preselected dataset is visualized as a preview in the first region of the display surface. first graphical data are displayed in a first region of a display surface in the interior of the vehicle, second graphical data are displayed in a second region of the display surface, wherein the first graphical data are associated with the second graphical data, a position of an actuation element in a detection space that is associated with the second region of the display surface is detected, and the position of the actuation element is associated with a first portion of the second graphical data, wherein the first portion of the second graphical data is preselected, characterized in that the preselection relates to a selection of a dataset within a set of datasets that are visualized by the second graphical data in the second region of the display surface, information is associated with the preselected dataset and first graphical data are generated for a preview in a display mode in the first region of the display surface depending on the preselected dataset, wherein the information associated with the preselected dataset is visualized as a preview in the first region of the display surface.
A generator for an ultrasonic surgical instrument comprising an ultrasonic electromechanical system comprising an ultrasonic transducer coupled to an ultrasonic blade via an ultrasonic waveguide, the generator comprising: a control circuit configured to: activate an ultrasonic blade temperature sensing; measure a first resonant frequency of the ultrasonic electromechanical system; make a first comparison between the measured first resonant frequency and a first predetermined resonant frequency, wherein the first predetermined resonant frequency corresponds to a first predetermined temperature of the ultrasonic blade; and adjust a power level applied to the ultrasonic transducer based on the first comparison, wherein if the measured first resonant frequency is less than the first predetermined resonant frequency, the power level applied to the ultrasonic transducer is increased, and if the measured first resonant frequency exceeds the first predetermined resonant frequency, the power level applied to the ultrasonic transducer is decreased. activate an ultrasonic blade temperature sensing; measure a first resonant frequency of the ultrasonic electromechanical system; make a first comparison between the measured first resonant frequency and a first predetermined resonant frequency, wherein the first predetermined resonant frequency corresponds to a first predetermined temperature of the ultrasonic blade; and adjust a power level applied to the ultrasonic transducer based on the first comparison, wherein if the measured first resonant frequency is less than the first predetermined resonant frequency, the power level applied to the ultrasonic transducer is increased, and if the measured first resonant frequency exceeds the first predetermined resonant frequency, the power level applied to the ultrasonic transducer is decreased.
Bismaleimide compound, represented by Formula or: wherein: A, B and Z are independently and at each occurrence independently from each other a binding unit comprising one or more of an aliphatic, aromatic, or siloxane moiety, wherein optionally one or more of A, B and Z contains a cardo center or spiro center; represents one single bond or two single bonds; represents a single bond or double bond; R a and R b are independently and at each occurrence independently from each other a binding unit comprising one or more of an aliphatic, aromatic, or siloxane moiety; R z is R a or R b; X is at each occurrence independently from each other a binding unit comprising one or more of an aliphatic, aromatic, or siloxane moiety; R 1 is H or alkyl having 1 to 5 carbon atoms; R 2 is H or alkyl having 1 to 5 carbon atoms; n is an integer from 1 to 60; m is an integer from 0 to 60; and z is an integer from 0 to 60; wherein at least one of m or z is ≠ 0. A, B and Z are independently and at each occurrence independently from each other a binding unit comprising one or more of an aliphatic, aromatic, or siloxane moiety, wherein optionally one or more of A, B and Z contains a cardo center or spiro center; represents one single bond or two single bonds; represents a single bond or double bond; R a and R b are independently and at each occurrence independently from each other a binding unit comprising one or more of an aliphatic, aromatic, or siloxane moiety; R z is R a or R b; X is at each occurrence independently from each other a binding unit comprising one or more of an aliphatic, aromatic, or siloxane moiety; R 1 is H or alkyl having 1 to 5 carbon atoms; R 2 is H or alkyl having 1 to 5 carbon atoms; n is an integer from 1 to 60; m is an integer from 0 to 60; and z is an integer from 0 to 60; wherein at least one of m or z is ≠ 0.