mhurhangee/ep-ind-claims huggingface dataset:
Connecting element for fuel injection systems for connecting a fuel injection valve to a fuel-conducting component, wherein a main body is provided in which there is provided a receiving space for a fuel connector of the fuel injection valve, wherein the fuel connector, which is arrangeable at least partially in the receiving space, is supportable at least indirectly on the main body, wherein the fuel connector is supportable elastically on the main body at least in a radial direction, wherein at least one decoupling element is provided which, in the assembled state, is arranged between the fuel connector and the main body, and in that the fuel connector is supportable elastically on the main body at least in the radial direction via the decoupling element, wherein the main body has a shoulder with a step on which the decoupling element is arranged, wherein, here, the decoupling element annularly surrounds an outer side of the fuel connector, characterized in that the main body, at its end, has the radially inwardly running shoulder with an opening which is configured within the shoulder and which is extended through by the fuel connector, wherein the step is provided on the shoulder in the region of the opening, by means of which step a projection of the shoulder is configured, which projection, in the case of a maximum adjustment movement or vibration amplitude, abuts as a limiting means for the decoupling element against the outer side of the fuel connector.
A first node for a system using authentication and key agreement, AKA, authentication procedure, the first node configured to connect to a second node that performs mobility management of a user equipment, UE, and receives a request message from the UE, the first node comprising: means for accessing a third node that serves AKA authentication information on the UE, means for getting the AKA authentication information from the third node upon requesting from the second node; and means for performing authentication of the UE using the AKA authentication information. means for accessing a third node that serves AKA authentication information on the UE, means for getting the AKA authentication information from the third node upon requesting from the second node; and means for performing authentication of the UE using the AKA authentication information.
A mobile terminal, comprising: a microphone configured to receive a voice of a user; a display unit; and a controller configured to detect a character or a word emphatically pronounced by the user from the received voice; the controller being further configured to: recognize a voice instruction by searching, from a particular database, for a menu or function related to the emphatically pronounced character or word; and discriminate whether the received voice is a voice instruction or is a simple voice message to be converted into text; if the received user voice is a voice instruction: the controller is configured to execute the function or menu searched from the database corresponding to the emphatically pronounced character or word; and if the received user voice is not an instruction: the controller is configured to convert the received voice into corresponding text; and the display unit is configured to emphatically display the emphatically pronounced character or word in the pre-set format when the text is displayed. a microphone configured to receive a voice of a user; a display unit; and a controller configured to detect a character or a word emphatically pronounced by the user from the received voice; the controller being further configured to: recognize a voice instruction by searching, from a particular database, for a menu or function related to the emphatically pronounced character or word; and discriminate whether the received voice is a voice instruction or is a simple voice message to be converted into text; if the received user voice is a voice instruction: the controller is configured to execute the function or menu searched from the database corresponding to the emphatically pronounced character or word; and if the received user voice is not an instruction: the controller is configured to convert the received voice into corresponding text; and the display unit is configured to emphatically display the emphatically pronounced character or word in the pre-set format when the text is displayed. recognize a voice instruction by searching, from a particular database, for a menu or function related to the emphatically pronounced character or word; and discriminate whether the received voice is a voice instruction or is a simple voice message to be converted into text; if the received user voice is a voice instruction: the controller is configured to execute the function or menu searched from the database corresponding to the emphatically pronounced character or word; and if the received user voice is not an instruction: the controller is configured to convert the received voice into corresponding text; and the display unit is configured to emphatically display the emphatically pronounced character or word in the pre-set format when the text is displayed. the controller is configured to convert the received voice into corresponding text; and the display unit is configured to emphatically display the emphatically pronounced character or word in the pre-set format when the text is displayed.
Toothbrush produced by injection molding with a first molded part (2; 32) made of a first plastic material, having a brush head in its front region, and a second molded part (4; 34) made of a second plastic material, forming at least part of a rear region of a handle, wherein a positive fit formed during the injection-molding between the two molded parts (2, 4; 32, 34) is present, consisting of parts (10, 11; 17, 18; 22, 23; 22', 23'; 40, 41) of the two molded parts (2, 4; 32, 34) provided at least on a part of the contact surface (8, 9; 14, 16) of the two molded parts (2, 4; 32, 34) and engaging in one another, and wherein at least one of the molded parts (2, 4; 32, 34) has at least a further part made of a further material, namely a thermoplastic elastomer, wherein the molded parts (2, 4; 32, 34) are formed from different plastic materials which do not bond with each other during injection-molding and the first molded part (2; 32) is injection-molded into the second molded part (4; 34).
Method for assisting a driver of a vehicle during a manoeuvre, in particular a parking manoeuvre, in order to overcome an obstacle at a low velocity which is, in particular, lower than 10 km/h, wherein the obstacle has a height which can be overcome by the vehicle, comprising the following steps: (a) transmitting a high torque or a force to the wheels (11, 12) in order to overcome the obstacle, (b) detecting whether the obstacle has been overcome, and (c) reducing the torque or the force transmitted to the wheels (11, 13) or automatically braking the vehicle directly after the overcoming of the obstacle. (a) transmitting a high torque or a force to the wheels (11, 12) in order to overcome the obstacle, (b) detecting whether the obstacle has been overcome, and (c) reducing the torque or the force transmitted to the wheels (11, 13) or automatically braking the vehicle directly after the overcoming of the obstacle.
Process of preparing a siloxane copolymer by 1) reacting i) a 1-alkene containing from 8 to 12 carbon atoms; ii) a cyclic siloxane having the formula: wherein R is an alkyl radical having 1 to 3 carbon atoms; c is 4 to 6 in the presence of a platinum catalyst so as to form a cyclic copolymer having the formula: where R' is an alkyl group having from 8 to 12 carbon atoms and a+b=c; 2) removing the unreacted alkene and volatile cyclic siloxanes from the reaction mixture by vacuum stripping and where the molar ratio alkene:cyclic siloxanes is ≥1.5; and wherein the cyclic copolymer has a Volatile Organic Content according to ASTM 5095 below 100g/l. 1) reacting i) a 1-alkene containing from 8 to 12 carbon atoms; ii) a cyclic siloxane having the formula: wherein R is an alkyl radical having 1 to 3 carbon atoms; c is 4 to 6 in the presence of a platinum catalyst so as to form a cyclic copolymer having the formula: where R' is an alkyl group having from 8 to 12 carbon atoms and a+b=c; i) a 1-alkene containing from 8 to 12 carbon atoms; ii) a cyclic siloxane having the formula: wherein R is an alkyl radical having 1 to 3 carbon atoms; c is 4 to 6 in the presence of a platinum catalyst so as to form a cyclic copolymer having the formula: where R' is an alkyl group having from 8 to 12 carbon atoms and a+b=c; 2) removing the unreacted alkene and volatile cyclic siloxanes from the reaction mixture by vacuum stripping and where the molar ratio alkene:cyclic siloxanes is ≥1.5; and wherein the cyclic copolymer has a Volatile Organic Content according to ASTM 5095 below 100g/l.
A system for controlling gate power, comprising: a metal oxide semiconductor field effect transistor, MOSFET, configured to supply power to a load according to a gate control voltage applied to a gate of the MOSFET; a gate control circuit configured to turn on and off the gate control voltage supplied to the gate of the MOSFET; and a ramping circuit configured to perform at least one of ramping up a voltage applied to the gate of the MOSFET based on the gate control circuit turning on power to the gate of the MOSFET and ramping down the voltage applied to the gate of the MOSFET based on the gate control circuit turning off power to the gate of the MOSFET; wherein the ramping up of the voltage includes changing a rate at which power supplied to the gate of the MOSFET changes from a low voltage to a high voltage relative to a gate drive power output signal from the gate drive circuit; and wherein the ramping down of the voltage includes changing the rate at which power supplied to the gate of the MOSFET changes from the high voltage to the low voltage relative to the gate drive power output signal from the gate drive circuit, characterised in that the gate control circuit includes a first pulse transformer to provide power to a positive voltage gate rail and a second pulse transformer to provide power to a negative voltage gate rail. a metal oxide semiconductor field effect transistor, MOSFET, configured to supply power to a load according to a gate control voltage applied to a gate of the MOSFET; a gate control circuit configured to turn on and off the gate control voltage supplied to the gate of the MOSFET; and a ramping circuit configured to perform at least one of ramping up a voltage applied to the gate of the MOSFET based on the gate control circuit turning on power to the gate of the MOSFET and ramping down the voltage applied to the gate of the MOSFET based on the gate control circuit turning off power to the gate of the MOSFET; wherein the ramping up of the voltage includes changing a rate at which power supplied to the gate of the MOSFET changes from a low voltage to a high voltage relative to a gate drive power output signal from the gate drive circuit; and wherein the ramping down of the voltage includes changing the rate at which power supplied to the gate of the MOSFET changes from the high voltage to the low voltage relative to the gate drive power output signal from the gate drive circuit, characterised in that the gate control circuit includes a first pulse transformer to provide power to a positive voltage gate rail and a second pulse transformer to provide power to a negative voltage gate rail.
A machine for treating organic waste, comprising: a casing defining an inner treatment chamber for organic waste delimited at least in part by a screening grid, and an inlet opening for waste at one end of the chamber and an outlet opening at an end opposite to the inlet opening; at least one driven shaft (4, 4a) installed in said inner treatment chamber and provided with mechanical means for grinding or pressing the introduced organic waste against the screening grid or against at least one wall which delimits the inner treatment chamber; a first motor (6, 6a) having a drive shaft (5, 5a) functionally coupled to said driven shaft; a first transmission system (7, 7a) configured to transmit to said driven shaft a rotational movement imparted by said first motor to the drive shaft, said first transmission system comprising at least one first support bearing functionally coupled to the drive shaft; characterized in that said first transmission system comprises: a second self-aligning bearing (8, 8a), configured to allow an angular misalignment between a longitudinal axis of the driven shaft and a rotation axis of the drive shaft up to a maximum misalignment value, such that a free distal end of the driven shaft may fluctuate heightwise inside said inner treatment chamber for treating organic waste. a casing defining an inner treatment chamber for organic waste delimited at least in part by a screening grid, and an inlet opening for waste at one end of the chamber and an outlet opening at an end opposite to the inlet opening; at least one driven shaft (4, 4a) installed in said inner treatment chamber and provided with mechanical means for grinding or pressing the introduced organic waste against the screening grid or against at least one wall which delimits the inner treatment chamber; a first motor (6, 6a) having a drive shaft (5, 5a) functionally coupled to said driven shaft; a first transmission system (7, 7a) configured to transmit to said driven shaft a rotational movement imparted by said first motor to the drive shaft, said first transmission system comprising at least one first support bearing functionally coupled to the drive shaft; characterized in that said first transmission system comprises: a second self-aligning bearing (8, 8a), configured to allow an angular misalignment between a longitudinal axis of the driven shaft and a rotation axis of the drive shaft up to a maximum misalignment value, such that a free distal end of the driven shaft may fluctuate heightwise inside said inner treatment chamber for treating organic waste.
A round bale forming apparatus (200; 500; 600; 700; 800; 900), comprising - a first bale forming chamber (226; 771) and a second bale forming chamber (228; 770), the second bale forming chamber (228; 770) being positioned rearwardly of the first bale forming chamber (226; 771), each of the first and second bale forming chambers (228; 770) comprising means for forming a bale from a crop product; - a feeding mechanism which feeds the crop product into the bale forming apparatus in order to form a bale from the crop product, the feeding mechanism being provided with a cutting means; - transfer means for transferring a partially formed bale from the first bale forming chamber (226; 771) into the second bale forming chamber (228; 770), the transfer means being provided with a transfer mechanism (250; 750) located between the first bale forming chamber (226; 771) and the second bale forming chamber (228; 770); and - directional means (263; 783) for directing the crop product from the feeding mechanism into the first bale forming chamber (226; 771) or the second bale forming chamber (228; 770) such that a the partially formed bale is formable in the first bale forming chamber (226; 771) and a fully formed bale is formable in the second bale forming chamber (228; 770) characterized in that the transfer mechanism (250; 750) is provided with covering means (259; 760) pivotably moveable predominately around the centre of the feeding and / or cutting means (224; 769) to provide a cover over the feeding and / or cutting means (224; 769) for transfer of the partially formed bale. - a first bale forming chamber (226; 771) and a second bale forming chamber (228; 770), the second bale forming chamber (228; 770) being positioned rearwardly of the first bale forming chamber (226; 771), each of the first and second bale forming chambers (228; 770) comprising means for forming a bale from a crop product; - a feeding mechanism which feeds the crop product into the bale forming apparatus in order to form a bale from the crop product, the feeding mechanism being provided with a cutting means; - transfer means for transferring a partially formed bale from the first bale forming chamber (226; 771) into the second bale forming chamber (228; 770), the transfer means being provided with a transfer mechanism (250; 750) located between the first bale forming chamber (226; 771) and the second bale forming chamber (228; 770); and - directional means (263; 783) for directing the crop product from the feeding mechanism into the first bale forming chamber (226; 771) or the second bale forming chamber (228; 770) such that a the partially formed bale is formable in the first bale forming chamber (226; 771) and a fully formed bale is formable in the second bale forming chamber (228; 770) characterized in that the transfer mechanism (250; 750) is provided with covering means (259; 760) pivotably moveable predominately around the centre of the feeding and / or cutting means (224; 769) to provide a cover over the feeding and / or cutting means (224; 769) for transfer of the partially formed bale.
A loudspeaker comprising two acoustic diaphragms mounted to face in axially-opposed directions, two voice coils (26, 28) each having an axis and an axial length and being configured to reciprocate along its axis to drive one of the diaphragms, the axes being substantially parallel and both axes passing through both diaphragms, and at least one magnet forming part of a chassis assembly configured to provide two axially-extending gaps, one for each of the voice coils to reciprocate within, wherein the at least one magnet and the chassis assembly are adapted so that magnetic flux flows across the gaps (46, 48) in opposite directions, and characterised in that when in use the diaphragms are at their predetermined maximum negative excursions the voice coils overlap in the axial direction by between 10% and 90% of their average axial length, and wherein when in use the diaphragms are in a relaxed position, between their maximum negative and positive excursions, the voice coils do not overlap in the axial direction.
An initial cell access method, comprising: receiving, by a terminal device, a first cell Barred parameter and a second cell Barred parameter, the first cell Barred parameter is used by a first-type terminal device to determine whether to camp on a first cell, the second cell Barred parameter is used by a second-type terminal device to determine whether to camp on the first cell, and determining, by the terminal device based on a type of the terminal device, to use the first cell Barred parameter or the second cell Barred parameter, wherein the type of the terminal is the first-type terminal or the second-type terminal; wherein a quantity of one or more antennas of the first-type terminal device is different from a quantity of one or more antennas of the second-type terminal device. receiving, by a terminal device, a first cell Barred parameter and a second cell Barred parameter, the first cell Barred parameter is used by a first-type terminal device to determine whether to camp on a first cell, the second cell Barred parameter is used by a second-type terminal device to determine whether to camp on the first cell, and determining, by the terminal device based on a type of the terminal device, to use the first cell Barred parameter or the second cell Barred parameter, wherein the type of the terminal is the first-type terminal or the second-type terminal; wherein a quantity of one or more antennas of the first-type terminal device is different from a quantity of one or more antennas of the second-type terminal device.
A vacuum pump, in particular a rotary vane pump, a reciprocating piston pump, a Roots pump or a screw pump, comprising a pump rotor rotatable about an axis of rotation for pumping a fluid through the vacuum pump and an electric motor for driving the pump rotor, wherein the electric motor has a rotatable rotor and a stator which cooperates with the rotor and which is annular in its basic shape, characterized in that the stator is assembled from a plurality of stator teeth which follow one another in the peripheral direction of the stator and which are ring segment-shaped in their basic shape, with each stator tooth having a radially extending support section at which a first and second arcuate contact section (17a, 17b) are arranged in a radially outwardly disposed manner and a first and second arcuate end section (19a, 19b) are arranged in a radially inwardly disposed manner, with the first contact section and the first end section projecting from the support section against the peripheral direction and the second contact section and the second end section projecting in the peripheral direction, with the first contact section, the second contact section, the first end section and the second end section each having a radial dimension which is constant in the peripheral direction; with, in the stator, the first contact section of a respective stator tooth contacting the second contact section of a stator tooth which is a preceding stator tooth in the peripheral direction of the stator, and with the second contact section of the respective stator tooth contacting the first contact section of a stator tooth which is a following stator tooth in the peripheral direction; with the first contact section of a stator tooth having a prolongation and the second contact section of the same stator tooth having a recess complementary to the prolongation to form a form-fitted connection between the first and second contact sections (17a, 17b) of two stator teeth following one another in the peripheral direction of the stator; and with the prolongation extending over the total radial dimension of the first contact section in the radial direction and having a free end in whose direction the prolongation tapers in a wedge shape.
An atomizer, comprising: a sleeve; a liquid storage sleeve disposed at an end of the sleeve along an axial direction of the sleeve; and an atomizing assembly, wherein the atomizing assembly comprises a liquid conducting body and a heating element; the liquid conducting body is disposed in the sleeve along an axial direction of the sleeve, extending from the sleeve into the liquid storage sleeve; the heating element is sleeved on outside of the liquid conducting body and configured for heating tobacco liquid absorbed by the liquid conducting body from the liquid storage sleeve, to generate an aerosol in an atomizing space between the sleeve and the heating element, characterized in that the liquid conducting body is a barrel-shaped structure, provided inside with a liquid filling tube; the liquid filling tube extends from the sleeve into the liquid storage sleeve and is configured for conveying the tobacco liquid that is injected into the liquid filling tube through a distal end of the sleeve away from the liquid storage sleeve, to the liquid storage sleeve. a sleeve; a liquid storage sleeve disposed at an end of the sleeve along an axial direction of the sleeve; and an atomizing assembly, wherein the atomizing assembly comprises a liquid conducting body and a heating element; the liquid conducting body is disposed in the sleeve along an axial direction of the sleeve, extending from the sleeve into the liquid storage sleeve; the heating element is sleeved on outside of the liquid conducting body and configured for heating tobacco liquid absorbed by the liquid conducting body from the liquid storage sleeve, to generate an aerosol in an atomizing space between the sleeve and the heating element, characterized in that the liquid conducting body is a barrel-shaped structure, provided inside with a liquid filling tube; the liquid filling tube extends from the sleeve into the liquid storage sleeve and is configured for conveying the tobacco liquid that is injected into the liquid filling tube through a distal end of the sleeve away from the liquid storage sleeve, to the liquid storage sleeve.