mhurhangee/ep-ind-claims huggingface dataset:
An injection device for dose setting and for dispensing a fixed dose of a fluid product comprising - a threaded rod, the thread having a tooth arrangement, - a rotary sleeve (2; 20) having an engagement element, wherein the engagement element is engageable into the tooth arrangement of the threaded rod, - a guide sleeve having an engagement element, wherein the engagement element is engageable into the tooth arrangement of the threaded rod, and - a dosing sleeve (4; 40) which is arranged axially moveably relative to the rotary sleeve (2; 20) and relative to the guide sleeve (1; 10), characterised in that the dosing sleeve (4; 40) is in threaded engagement (4b, 2b) with the rotary sleeve (2; 20). - a threaded rod, the thread having a tooth arrangement, - a rotary sleeve (2; 20) having an engagement element, wherein the engagement element is engageable into the tooth arrangement of the threaded rod, - a guide sleeve having an engagement element, wherein the engagement element is engageable into the tooth arrangement of the threaded rod, and - a dosing sleeve (4; 40) which is arranged axially moveably relative to the rotary sleeve (2; 20) and relative to the guide sleeve (1; 10), characterised in that
Stabilization element for stabilizing a roof hook with respect to a roof tile, comprising: a a chain of several filler segments pivotably connected to one another, and a at least one fastening element connected to the chain for fastening the stabilization element to a roof hook, wherein the filler segments are pivotable with respect to one another in such a way that several filler segments can be brought into a stacked position in order to fill a space between a roof tile and a roof hook coupled to the roof tile in which the stabilization element on one side engages with a top side of the roof tile and on the other side engages with a part of the roof hook situated above which is at a distance from the roof tile, characterized in that at least one filler segment is provided with a coupling member (5, 6), and wherein at least one adjacent filler segment is provided with a complementary coupling member (5, 6), wherein the coupling member (5, 6) and the complementary coupling member (5, 6) are configured to interact with one another in the stacked position of said filler segments. a a chain of several filler segments pivotably connected to one another, and a at least one fastening element connected to the chain for fastening the stabilization element to a roof hook,
Suction device for a hood, comprising an impeller, an electric motor that drives said impeller, a volute that houses inside said electric motor and said impeller, a capacitor, and a connector electrically connected to said capacitor for supplying power to said electric motor, wherein said volute comprises a first semi-shell and a second semi-shell joined with each other so as to constitute the structure of said volute surrounding said impeller, said capacitor being housed in a first compartment formed in said first semi-shell and said connector being housed in a second compartment formed in said second semi-shell, said first compartment and said second compartment being adjacent to each other in said volute, characterized in said connector is configured to connect electrically by engaging directly with said capacitor, when both are inserted in said second compartment and in said first compartment, respectively, and the two semi-shells are joined with each other.
A water gas generation system comprising: a carbonizing furnace configured to generate carbide and combustion gas by partial combustion of organic waste; a pyrolytic furnace configured to generate water gas by heating, with the combustion gas, water steam and the carbide generated by the carbonizing furnace; a steam generator configured to generate the water steam by heating water with the combustion gas; a steam superheater configured to superheat, with the combustion gas, the water steam generated by the steam generator and configured to supply the superheated water steam to the pyrolytic furnace; a dryer configured to dry the organic waste with the combustion gas and configured to supply the dried organic waste to the carbonizing furnace; and a combustion gas flow path (200a; 200b; 200c; 200d) configured to supply the combustion gas generated by the carbonizing furnace to the pyrolytic furnace, configured to supply the combustion gas discharged from the pyrolytic furnace to the steam superheater, configured to supply the combustion gas discharged from the steam superheater to the steam generator, and configured to supply the combustion gas discharged from the steam generator to the dryer. a carbonizing furnace configured to generate carbide and combustion gas by partial combustion of organic waste; a pyrolytic furnace configured to generate water gas by heating, with the combustion gas, water steam and the carbide generated by the carbonizing furnace; a steam generator configured to generate the water steam by heating water with the combustion gas; a steam superheater configured to superheat, with the combustion gas, the water steam generated by the steam generator and configured to supply the superheated water steam to the pyrolytic furnace; a dryer configured to dry the organic waste with the combustion gas and configured to supply the dried organic waste to the carbonizing furnace; and a combustion gas flow path (200a; 200b; 200c; 200d) configured to supply the combustion gas generated by the carbonizing furnace to the pyrolytic furnace, configured to supply the combustion gas discharged from the pyrolytic furnace to the steam superheater, configured to supply the combustion gas discharged from the steam superheater to the steam generator, and configured to supply the combustion gas discharged from the steam generator to the dryer.
A fouling detector for detecting grease fouling deposited on an internal surface of an exhaust duct that removes cooking fumes from a kitchen, comprising: a member for being placed with a surface in an exhaust stream, the member surface having or being a mirror or a diffuse reflector; a light source configured to direct light toward the member surface; and a detector configured to receive light reflected from the member surface, characterized in that the member is coupled to the light source and the detector by a low profile arm such that exhaust can flow around the member easily causing material in the exhaust to be deposited on the member surface, wherein the fouling detector is configured to be placed in a single access opening of a duct wall. a member for being placed with a surface in an exhaust stream, the member surface having or being a mirror or a diffuse reflector; a light source configured to direct light toward the member surface; and a detector configured to receive light reflected from the member surface, characterized in that the member is coupled to the light source and the detector by a low profile arm such that exhaust can flow around the member easily causing material in the exhaust to be deposited on the member surface, wherein the fouling detector is configured to be placed in a single access opening of a duct wall.
An electrostatic capacitance detection device formed with a first electrode, an insulating layer on the first electrode, and a second electrode on the insulating layer, the electrostatic capacitance detection device configured to calculate a shear force applied from above an upper portion of the second electrode, wherein the first electrode is formed of an island-shaped pattern, the second electrode is formed of two layers of an upper second electrode and a lower second electrode, an insulating film is interposed between the upper second electrode and the lower second electrode, and the upper second electrode and the lower second electrode are formed of a plurality of linear patterns intersecting in a plan view, and a portion of the island-shaped pattern of the first electrode overlaps with a portion of the pattern of the upper second electrode and a portion of the pattern of the lower second electrode in a plan view, the electrostatic capacitance detection device being characterized in that a region where a portion of the island-shaped pattern of the first electrode overlaps with a portion of the pattern of the upper second electrode in a planer view is larger than a region where a portion of the island-shaped pattern of the first electrode overlaps with a portion of the pattern of the lower second electrode in a planer view. a first electrode, an insulating layer on the first electrode, and a second electrode on the insulating layer, the electrostatic capacitance detection device configured to calculate a shear force applied from above an upper portion of the second electrode, wherein the first electrode is formed of an island-shaped pattern, the second electrode is formed of two layers of an upper second electrode and a lower second electrode, an insulating film is interposed between the upper second electrode and the lower second electrode, and the upper second electrode and the lower second electrode are formed of a plurality of linear patterns intersecting in a plan view, and a portion of the island-shaped pattern of the first electrode overlaps with a portion of the pattern of the upper second electrode and a portion of the pattern of the lower second electrode in a plan view, the electrostatic capacitance detection device being characterized in that a region where a portion of the island-shaped pattern of the first electrode overlaps with a portion of the pattern of the upper second electrode in a planer view is larger than a region where a portion of the island-shaped pattern of the first electrode overlaps with a portion of the pattern of the lower second electrode in a planer view.
A catheter, comprising: an inflation balloon inflatable within a vessel; at least one chain electrode (34A-B, 36A-B) including multiple linked rings of conductive material configured to form a continuous loop extending circumferentially around at least a portion of a periphery of the inflation balloon; and a conductive filament (46A-D) coupled to at least some of the multiple linked rings of conductive material, characterised in that the conductive filament (46A-D) is threaded through at least some of the multiple linked rings of conductive material. an inflation balloon inflatable within a vessel; at least one chain electrode (34A-B, 36A-B) including multiple linked rings of conductive material configured to form a continuous loop extending circumferentially around at least a portion of a periphery of the inflation balloon; and a conductive filament (46A-D) coupled to at least some of the multiple linked rings of conductive material, characterised in that the conductive filament (46A-D) is threaded through at least some of the multiple linked rings of conductive material.
A method for allocating a group identifier, comprising: dividing all group identifiers, GIDs, into N parts, wherein N is the number of basic service set, BSS, networks, N being a natural number bigger than 1, and the N BSS networks have a common area; wherein the number of GIDs allocated to each BSS network is determined based on the total number of GIDs and the number of times of communicating in a multi-user - multiple input multiple output, MU-MIMO, mode by each BSS network within a preset time period; and respectively allocating the N parts of GIDs to N BSS networks, which communicate in the MU-MIMO mode, wherein the part of GIDs allocated to each of the N BSS networks will be allocated by an access point, AP, in the BSS network to a non-AP Station, STA, in the BSS network for MU-MIMO transmission. dividing all group identifiers, GIDs, into N parts, wherein N is the number of basic service set, BSS, networks, N being a natural number bigger than 1, and the N BSS networks have a common area; wherein the number of GIDs allocated to each BSS network is determined based on the total number of GIDs and the number of times of communicating in a multi-user - multiple input multiple output, MU-MIMO, mode by each BSS network within a preset time period; and respectively allocating the N parts of GIDs to N BSS networks, which communicate in the MU-MIMO mode, wherein the part of GIDs allocated to each of the N BSS networks will be allocated by an access point, AP, in the BSS network to a non-AP Station, STA, in the BSS network for MU-MIMO transmission.
An inside handle device of a vehicle comprising: a handle unit obtainable by rotatably connecting an operation member including an operation handle to a handle base; and a cable unit obtainable by movably holding, on a cable cover, one end of a cable device configured to connect the operation member to a latch device fixed to a door, wherein the cable cover has a first locking portion formed at a cable introduction edge and a second locking portion formed at an opposite-end edge, the first locking portion is rotatably locked to the handle base with the opposite-end edge as a rotating end, the second locking portion is elastically locked in a state of being rotated about the first locking portion, and the operation member is locked to a connecting body formed at the one end of the cable device in a state where the cable unit is connected to the handle unit, characterized in that the inside handle device of the vehicle is adapted to be fixed to a door panel by a fastening bolt, and wherein the second locking portion is restricted from moving in an unlocking direction by the fastening bolt when fixed to the door. a handle unit obtainable by rotatably connecting an operation member including an operation handle to a handle base; and a cable unit obtainable by movably holding, on a cable cover, one end of a cable device configured to connect the operation member to a latch device fixed to a door, wherein the cable cover has a first locking portion formed at a cable introduction edge and a second locking portion formed at an opposite-end edge, the first locking portion is rotatably locked to the handle base with the opposite-end edge as a rotating end, the second locking portion is elastically locked in a state of being rotated about the first locking portion, and the operation member is locked to a connecting body formed at the one end of the cable device in a state where the cable unit is connected to the handle unit, characterized in that the inside handle device of the vehicle is adapted to be fixed to a door panel by a fastening bolt, and wherein the second locking portion is restricted from moving in an unlocking direction by the fastening bolt when fixed to the door.
A quantum signal detection method, comprising: splitting a received optical pulse sequence into a first pulse sequence and a second pulse sequence that are in orthogonal polarization, wherein the optical pulse sequence comprises reference pulses and signal pulses whose time sequences are alternate and frequencies are the same, and the signal pulses are quantum signal pulses; obtaining information about the reference pulses; generating local oscillator light, wherein the local oscillator light is a pulse sequence whose time sequence is coincident with a time sequence of the optical pulse sequence; splitting the local oscillator light into first local oscillator light and second local oscillator light whose intensities are the same and that are in orthogonal polarization, wherein the first local oscillator light and the first pulse sequence are in a same polarization state, and the second local oscillator light and the second pulse sequence are in a same polarization state; performing homodyne detection on the first pulse sequence and the first local oscillator light, and performing homodyne detection on the second pulse sequence and the second local oscillator light, to obtain homodyne detection results; and obtaining regular components of the signal pulses in the optical pulse sequence according to the homodyne detection results and the information about the reference pulses. splitting a received optical pulse sequence into a first pulse sequence and a second pulse sequence that are in orthogonal polarization, wherein the optical pulse sequence comprises reference pulses and signal pulses whose time sequences are alternate and frequencies are the same, and the signal pulses are quantum signal pulses; obtaining information about the reference pulses; generating local oscillator light, wherein the local oscillator light is a pulse sequence whose time sequence is coincident with a time sequence of the optical pulse sequence; splitting the local oscillator light into first local oscillator light and second local oscillator light whose intensities are the same and that are in orthogonal polarization, wherein the first local oscillator light and the first pulse sequence are in a same polarization state, and the second local oscillator light and the second pulse sequence are in a same polarization state; performing homodyne detection on the first pulse sequence and the first local oscillator light, and performing homodyne detection on the second pulse sequence and the second local oscillator light, to obtain homodyne detection results; and obtaining regular components of the signal pulses in the optical pulse sequence according to the homodyne detection results and the information about the reference pulses.
Method for simultaneous cultivation of crop plants and energy-related use of sunlight by means of a solar module arrangement, in which the crop plants are cultivated on a useable surface arranged below modules which convert sunlight, wherein the modules are a component of a solar module arrangement which comprises a plurality of individual modules which are arranged to form module rows running in straight lines and which convert sunlight, wherein the modules which convert sunlight are arranged plane-parallel within each module row and the module rows run substantially parallel or completely parallel to one another at a predefined distance d, and the sunlight is converted in an energy-related manner by means of the solar module arrangement, characterised in that the alignment α of the straight-line course of the module rows deviates from the east-west alignment by at least 10° and a maximum of 80°.
A controller for an internal combustion engine, wherein the internal combustion engine includes a fuel injection valve and a fuel supply system, the fuel injection valve includes a valve member that opens and injects fuel when energized, the fuel supply system supplies fuel to the fuel injection valve, and the controller is configured to control the fuel injection valve so that the fuel injection valve selectively performs partial lift injection, which does not open the valve member at a fully open position, and full lift injection, which opens the valve member at the fully open position, the controller comprising: an energizing time setting unit configured to set an energizing time of the fuel injection valve; a fuel pressure calculation unit configured to calculate fuel pressure, which is pressure of the fuel supplied to the fuel injection valve, based on output signals of a fuel pressure sensor that are input to the controller in predetermined cycles; and a smoothening process unit configured to perform a smoothening process on the fuel pressure calculated by the fuel pressure calculation unit to calculate graded fuel pressure, which is proximate to an average value of the fuel pressure obtained during full lift injection, at which fluctuation of the fuel pressure that occurs when the fuel injection valve injects fuel is smoothened, wherein the energizing time setting unit is configured to set an energizing time for the full lift injection based on the graded fuel pressure calculated by the smoothening process unit and set an energizing time for the partial lift injection based on the fuel pressure calculated by the fuel pressure calculation unit. an energizing time setting unit configured to set an energizing time of the fuel injection valve; a fuel pressure calculation unit configured to calculate fuel pressure, which is pressure of the fuel supplied to the fuel injection valve, based on output signals of a fuel pressure sensor that are input to the controller in predetermined cycles; and a smoothening process unit configured to perform a smoothening process on the fuel pressure calculated by the fuel pressure calculation unit to calculate graded fuel pressure, which is proximate to an average value of the fuel pressure obtained during full lift injection, at which fluctuation of the fuel pressure that occurs when the fuel injection valve injects fuel is smoothened, wherein the energizing time setting unit is configured to set an energizing time for the full lift injection based on the graded fuel pressure calculated by the smoothening process unit and set an energizing time for the partial lift injection based on the fuel pressure calculated by the fuel pressure calculation unit.
A DC-DC converter, configured to receive input voltage from a voltage input end, and to provide output voltage to a voltage output end, wherein the DC-DC converter comprises a first capacitor, a second capacitor, a switched capacitor, SC, circuit, and an inductor circuit, an input end of the SC circuit is coupled to the voltage input end, and an output end of the SC circuit is coupled to the voltage output end; the first capacitor and the second capacitor are connected in series between the voltage input end and a ground end, one end of the inductor circuit is selectively connectable to either a midpoint of the first capacitor and the second capacitor by means of an eighth switch or to the ground end by means of a ninth switch, and the other end of the inductor circuit is coupled to the voltage output end, wherein the SC circuit includes a third capacitor and a fourth capacitor, a first end of the third capacitor is selectively connectable to either a first end of the fourth capacitor by means of a sixth switch or to the voltage output end by means of a fifth switch, and the other end of the third capacitor is selectively connectable to either the voltage output end by means of a second switch or to the ground end by means of a first switch, the first end of the fourth capacitor is selectively connectable to either the voltage input end by means of a seventh switch or to the first end of the third capacitor by means of the sixth switch, and the other end of the fourth capacitor is selectively connectable to either the midpoint of the first capacitor and the second capacitor by means of a fourth switch or to the ground end by means of a third switch, and wherein the DC-DC converter is configured to implement an open-loop mode for the SC circuit with the following two states: switch state 1: when the first switch, the fourth switch, the fifth switch, and the seventh switch are turned on, the second switch, the third switch, and the sixth switch are turned off, and switch state 2: when the first switch, the fourth switch, the fifth switch, and the seventh switch are turned off, the second switch, the third switch, and the sixth switch are turned on. switch state 1: when the first switch, the fourth switch, the fifth switch, and the seventh switch are turned on, the second switch, the third switch, and the sixth switch are turned off, and switch state 2: when the first switch, the fourth switch, the fifth switch, and the seventh switch are turned off, the second switch, the third switch, and the sixth switch are turned on.