mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol generating device configured to operate with a consumable article comprising a substrate portion containing a solid substrate and defining an external surface; the aerosol generating device comprising a heating chamber extending along a chamber axis (X) and configured to receive at least the substrate portion of the consumable article ; the heating chamber comprising a plurality of contact walls designed to be in contact with the external surface of the substrate portion of the consumable article , the aerosol generating device being characterized in that the plurality of contact walls comprises a bottom wall arranged substantially perpendicularly to the chamber axis (X) and at least one lateral wall arranged substantially parallel to the chamber axis (X), the bottom wall being in contact with the or each lateral wall along a common border ; the heating chamber further comprising a heating element extending from a centre (C) of the bottom wall parallel to the or at least one lateral wall ; the heating chamber further comprising an inlet portion (45; 50; 60) comprising an inlet hole (52A, 52B; 62A, 62B) of an airflow path extending through the substrate portion of the consumable article when it is received in the heating chamber and when the device is operated to generate aerosol; said inlet portion (45; 50; 60) extending on the bottom wall and/or on the or at least one lateral wall to create an airflow gradient at least at a region of the heating chamber adjacent to this inlet portion, said airflow gradient extending from the centre (C) of the bottom wall until the common border . the aerosol generating device comprising a heating chamber extending along a chamber axis (X) and configured to receive at least the substrate portion of the consumable article ; the heating chamber comprising a plurality of contact walls designed to be in contact with the external surface of the substrate portion of the consumable article , the aerosol generating device being characterized in that the plurality of contact walls comprises a bottom wall arranged substantially perpendicularly to the chamber axis (X) and at least one lateral wall arranged substantially parallel to the chamber axis (X), the bottom wall being in contact with the or each lateral wall along a common border ; the heating chamber further comprising a heating element extending from a centre (C) of the bottom wall parallel to the or at least one lateral wall ; the heating chamber further comprising an inlet portion (45; 50; 60) comprising an inlet hole (52A, 52B; 62A, 62B) of an airflow path extending through the substrate portion of the consumable article when it is received in the heating chamber and when the device is operated to generate aerosol; said inlet portion (45; 50; 60) extending on the bottom wall and/or on the or at least one lateral wall to create an airflow gradient at least at a region of the heating chamber adjacent to this inlet portion, said airflow gradient extending from the centre (C) of the bottom wall until the common border .
Vehicle connection device for a vehicle battery charging system for automatically conductively connecting a vehicle contact unit to a ground contact unit , comprising the vehicle contact unit that has a base with a contacting area in which at least one first contact electrode , at least one second contact electrode and at least one third contact electrode are provided, wherein the vehicle contact unit is moveable towards the ground contact unit in a contacting direction (R K ) in order to bring the at least one first contact electrode , the at least one second contact electrode and the at least one third contact electrode in contact with the ground contact unit , characterized by an aligning actuator that is connected to the base in such a way that it can rotate the base about an axis of rotation (D) that extends essentially in the contacting direction (R K ). the vehicle contact unit that has a base with a contacting area in which at least one first contact electrode , at least one second contact electrode and at least one third contact electrode are provided, wherein the vehicle contact unit is moveable towards the ground contact unit in a contacting direction (R K ) in order to bring the at least one first contact electrode , the at least one second contact electrode and the at least one third contact electrode in contact with the ground contact unit , characterized by an aligning actuator that is connected to the base in such a way that it can rotate the base about an axis of rotation (D) that extends essentially in the contacting direction (R K ).
Pumping station for a pipeline, in particular an oil or gas pipeline, 1.1 with at least one delivery pump for delivering a fluid through the pipeline ; 1.2 with at least one combustion engine (1, 1', 1"), which is in driving connection with the at least one delivery pump or can be switched into such a connection in order to drive the at least one delivery pump ; 1.3 with a hydrostatic system, which has at least one first hydraulic motor (10, 10', 10"), which is in driving connection with at least one combustion engine (1, 1', 1") or can be switched into such a connection in order to accelerate the at least one combustion engine (1, 1', 1") to start it by means of drive power; wherein 1.4 a hydraulic pressure accumulator , which has a limited volume and can be filled with a pressurized hydraulic medium that can be admitted to the first hydraulic motor (10, 10', 10") in order to drive it, is provided in the hydraulic system; characterized in that 1.5 the pressure differential present across the at least one first hydraulic motor (10, 10', 10") can be variably adjusted in the hydrostatic system in order to accelerate the combustion engine (1, 1', 1") to a pre-defined firing speed and an additional hydraulic motor is provided in the hydrostatic system and also provided is a hydraulic pump , which is driven by the additional hydraulic motor and feeds the hydraulic medium into the first hydraulic motor (10, 10', 10"). 1.1 with at least one delivery pump for delivering a fluid through the pipeline ; 1.2 with at least one combustion engine (1, 1', 1"), which is in driving connection with the at least one delivery pump or can be switched into such a connection in order to drive the at least one delivery pump ; 1.3 with a hydrostatic system, which has at least one first hydraulic motor (10, 10', 10"), which is in driving connection with at least one combustion engine (1, 1', 1") or can be switched into such a connection in order to accelerate the at least one combustion engine (1, 1', 1") to start it by means of drive power; wherein 1.4 a hydraulic pressure accumulator , which has a limited volume and can be filled with a pressurized hydraulic medium that can be admitted to the first hydraulic motor (10, 10', 10") in order to drive it, is provided in the hydraulic system; characterized in that 1.5 the pressure differential present across the at least one first hydraulic motor (10, 10', 10") can be variably adjusted in the hydrostatic system in order to accelerate the combustion engine (1, 1', 1") to a pre-defined firing speed and an additional hydraulic motor is provided in the hydrostatic system and also provided is a hydraulic pump , which is driven by the additional hydraulic motor and feeds the hydraulic medium into the first hydraulic motor (10, 10', 10").
An earth-boring drill bit , optionally a hybrid pilot reamer type bit, for drilling a bore hole in an earthen formation, the bit comprising: a bit body configured at its upper extent for connection to a drillstring, the bit body having a central axis and a bit face comprising a cone region, a nose region, a shoulder region, and a radially outermost gage region; at least one fixed blade extending downward from the bit body in the axial direction, the at least one fixed blade having a leading and a trailing edge; a plurality of fixed-blade cutting elements arranged on the at least one fixed blade ; at least one rolling cutter mounted for rotation on the bit body ; and a plurality of rolling-cutter cutting elements arranged on the at least one rolling cutter ; characterized in that the at least one fixed blade extends radially outwardly from the central axis toward the at least one rolling cutter in substantial alignment with the at least one rolling cutter , such that a line drawn from and perpendicular to the central axis would pass through substantially the centre of the at least one fixed blade and substantially the centre of the at least one rolling cutter . a bit body configured at its upper extent for connection to a drillstring, the bit body having a central axis and a bit face comprising a cone region, a nose region, a shoulder region, and a radially outermost gage region; at least one fixed blade extending downward from the bit body in the axial direction, the at least one fixed blade having a leading and a trailing edge; a plurality of fixed-blade cutting elements arranged on the at least one fixed blade ; at least one rolling cutter mounted for rotation on the bit body ; and a plurality of rolling-cutter cutting elements arranged on the at least one rolling cutter ; characterized in that the at least one fixed blade extends radially outwardly from the central axis toward the at least one rolling cutter in substantial alignment with the at least one rolling cutter , such that a line drawn from and perpendicular to the central axis would pass through substantially the centre of the at least one fixed blade and substantially the centre of the at least one rolling cutter .
A packaged mix for fried food which is tempura flour or fritter mix filled in a container, wherein the mix for fried food is a powder mixture comprising wheat flour and at least one selected from the group consisting of other cereal flour and starch at a mass ratio of 90 :10 to 50 : 50, and the mix for fried food has an angle of repose of 42 to 53 degrees, and the container is a shaker container including one or more shaker holes having a maximum width of 2 to 20 mm. wherein the mix for fried food is a powder mixture comprising wheat flour and at least one selected from the group consisting of other cereal flour and starch at a mass ratio of 90 :10 to 50 : 50, and the mix for fried food has an angle of repose of 42 to 53 degrees, and the container is a shaker container including one or more shaker holes having a maximum width of 2 to 20 mm.
A method of operating a heat releasing reactor producing product gas, comprising the steps of: a) monitoring the current load (Q h ) of the reactor; b) finding such a numerical value (Q h, candidate ) for a current computational maximum momentary load (Q h, max ) for which at least one product gas factor (df i ) computed using currently monitored process data with a numerical model of the reactor fulfills an acceptance condition, and selecting the numerical value (Q h, candidate ) as the current computational maximum momentary load (Q h,max ); c) indicating the current computational maximum momentary load (Q h,max ) to the operator and/or, if the current load (Q h ) is c1) smaller than the current computational maximum momentary load (Q h,max ): c1i) indicating the operator that the load (Q h ) may be increased, and/or c1ii) automatically increasing the load (Q h ), and/or c2) larger than the current computational maximum momentary load (Q h,max ): c2i) indicating the operator that the load (Q h ) exceeds the current computational maximum momentary load, and/or c2ii) automatically reducing the load (Q h ). a) monitoring the current load (Q h ) of the reactor; b) finding such a numerical value (Q h, candidate ) for a current computational maximum momentary load (Q h, max ) for which at least one product gas factor (df i ) computed using currently monitored process data with a numerical model of the reactor fulfills an acceptance condition, and selecting the numerical value (Q h, candidate ) as the current computational maximum momentary load (Q h,max ); c) indicating the current computational maximum momentary load (Q h,max ) to the operator and/or, if the current load (Q h ) is c1) smaller than the current computational maximum momentary load (Q h,max ): c1i) indicating the operator that the load (Q h ) may be increased, and/or c1ii) automatically increasing the load (Q h ), and/or c2) larger than the current computational maximum momentary load (Q h,max ): c2i) indicating the operator that the load (Q h ) exceeds the current computational maximum momentary load, and/or c2ii) automatically reducing the load (Q h ). c1) smaller than the current computational maximum momentary load (Q h,max ): c1i) indicating the operator that the load (Q h ) may be increased, and/or c1ii) automatically increasing the load (Q h ), and/or c1i) indicating the operator that the load (Q h ) may be increased, and/or c1ii) automatically increasing the load (Q h ), and/or c2) larger than the current computational maximum momentary load (Q h,max ): c2i) indicating the operator that the load (Q h ) exceeds the current computational maximum momentary load, and/or c2ii) automatically reducing the load (Q h ). c2i) indicating the operator that the load (Q h ) exceeds the current computational maximum momentary load, and/or c2ii) automatically reducing the load (Q h ).
A trailer intended to be attached to a cycle, said trailer comprising : - a chassis defining a longitudinal axis AA and comprising wheels , each coupled to an electric motor , - a device for attaching the chassis to the cycle and - a device for controlling the direction and speed or braking of the trailer according to given control instructions, the control device comprising: - means for measuring signals representative of forces configured to measure at least one signal representative of the longitudinal force and at least one signal representative of the transverse force, which forces are exerted by the cycle on the trailer when the trailer is attached to said cycle, and - a motor control unit capable of receiving the information relating to said longitudinal and transverse forces, characterized in that the measuring means comprise sensors, among which, on the one hand, at least one of the sensors is a deformation sensor constituting the means for measuring the signal representative of the longitudinal force exerted by the cycle on the trailer when it is attached to said cycle, and among which two sensors are located at the wheels constituting the means for measuring the signals representative of the transverse force exerted by the cycle on the trailer when it is attached to said cycle. - a chassis defining a longitudinal axis AA and comprising wheels , each coupled to an electric motor , - a device for attaching the chassis to the cycle and - a device for controlling the direction and speed or braking of the trailer according to given control instructions, the control device comprising: - means for measuring signals representative of forces configured to measure at least one signal representative of the longitudinal force and at least one signal representative of the transverse force, which forces are exerted by the cycle on the trailer when the trailer is attached to said cycle, and - a motor control unit capable of receiving the information relating to said longitudinal and transverse forces,
A method for extracting at least one foreign body lodged within a blade of a high-pressure distributor of a turbojet engine, said high-pressure distributor including fixed hollow blades between two annular shrouds forming a gas flow stream, each blade being coated with a thermal barrier and drilled with at least one cavity at least partially obstructed by a first brazed closing plate , characterised in that it includes the following operations of: - cutting the first closing plate, - extracting the foreign body out of the cavity, - endoscopically inspecting an internal space of the cavity to check that no foreign bodies remain, - positioning a second closing plate on the cavity, and - brazing the second closing plate directly to the distributor with the blades coated with the thermal barrier. - cutting the first closing plate, - extracting the foreign body out of the cavity, - endoscopically inspecting an internal space of the cavity to check that no foreign bodies remain, - positioning a second closing plate on the cavity, and - brazing the second closing plate directly to the distributor with the blades coated with the thermal barrier.
An encoding system for encoding image data of one picture by a plurality of encoders (30 1 , ... 30 n ) so that each piece of the encoded data encoded by the encoders becomes a slice of one picture, the encoding system comprising: a distributing unit configured to obtain a value of a predetermined system time clock - STC- counter as a reference time so that the value of the predetermined STC counter synchronizes with a video vertical-synchronizing signal -VSYNC-, that is a signal indicating a section of divided image data and that is a signal input to each respective encoder together with image data input to the encoder, and distribute a value, obtained by adding one-cycle value of the video vertical-synchronizing signal to the obtained STC counter value, to each of the encoders so that the STC counter values completely match each other between the encoders, the reference time being a reference at the time of encoding a slice of the image data in each of the encoders, wherein each of the encoders includes: a setting unit configured to hold the value distributed by the distributing unit in a register included in each respective encoder, upon reception of the distributed value, and set the value held in the register as the value of the STC counter included in each respective encoder so that the value synchronizes with the video vertical-synchronizing signal first received after holding the value in the register. a distributing unit configured to obtain a value of a predetermined system time clock - STC- counter as a reference time so that the value of the predetermined STC counter synchronizes with a video vertical-synchronizing signal -VSYNC-, that is a signal indicating a section of divided image data and that is a signal input to each respective encoder together with image data input to the encoder, and distribute a value, obtained by adding one-cycle value of the video vertical-synchronizing signal to the obtained STC counter value, to each of the encoders so that the STC counter values completely match each other between the encoders, the reference time being a reference at the time of encoding a slice of the image data in each of the encoders, wherein each of the encoders includes: a setting unit configured to hold the value distributed by the distributing unit in a register included in each respective encoder, upon reception of the distributed value, and set the value held in the register as the value of the STC counter included in each respective encoder so that the value synchronizes with the video vertical-synchronizing signal first received after holding the value in the register.
Installation for detection and measurement of environmentally induced stratifications such as water and/or ice around drains/outlets on building roofs for drainage of liquids, comprising: - at least one contact medium , - at least one sensor, - at least one control and measurement system , wherein the at least one sensor comprises one or more piezoelectric transducers , which are mounted primarily perpendicular to said contact medium underneath possible stratifications , where the one or more piezoelectric transducers are concealed under a protective layer formed by said contact medium , thereby precluding direct access from the side facing the location of the stratification, wherein the at least one control and measurement system comprises a computer and a transmitter/receiver , the computer comprises a I/O-unit and a processor , where detection, identification and determination of the thickness of the stratification layers located above each individual transducer are achieved by generation and transmission of acoustic waves, followed by measurement of transducers signals due to reflected acoustic waves in the interfaces and the surfaces of the layers ; and wherein the contact medium are selected with acoustic impedance close to the acoustic impedance of the layers to be measured and applying a sealing compound between the transducer and the at least one contact medium . - at least one contact medium , - at least one sensor, - at least one control and measurement system ,
Radio transmission device comprising a plurality of elementary cells (C_i), each comprising a transmit circuit and an antenna connected to an output terminal (S) of the transmit circuit, each transmit circuit comprising a power detector specific to the cell, having an input node coupled to the output terminal (S) of the cell transmit circuit , and an output node (s1) specific to the cell, the device further comprising a control circuit configured to, during an operating phase, implement the steps of: a) simultaneously activating in transmit mode a first cell of said plurality of cells, deactivating in transmit mode a second cell of said plurality of cells, and reading from the output node (s1) of the power detector of the second cell a signal representative of a radio frequency power received on the output terminal (S) of the second cell via the antenna of the second cell; and b) deducing from the signal read at step a) information relative to the state of the device or of its environment, wherein said information deduced at step b) characterizes a power transfer between the antennas of the first and second cells. a) simultaneously activating in transmit mode a first cell of said plurality of cells, deactivating in transmit mode a second cell of said plurality of cells, and reading from the output node (s1) of the power detector of the second cell a signal representative of a radio frequency power received on the output terminal (S) of the second cell via the antenna of the second cell; and b) deducing from the signal read at step a) information relative to the state of the device or of its environment,
A system comprising: a microelectromechanical system, MEMS, vibrating beam accelerometer, VBA, comprising: a proof mass ; and a first resonator mechanically coupled to the proof mass ; a first electrode configured to apply a force to the proof mass , a second electrode configured to sense a motion of the proof mass and output a signal corresponding to the sensed motion of the proof mass , and a circuit board configured to connect the first and second electrodes to ground. a microelectromechanical system, MEMS, vibrating beam accelerometer, VBA, comprising: a proof mass ; and a first resonator mechanically coupled to the proof mass ; a proof mass ; and a first resonator mechanically coupled to the proof mass ; a first electrode configured to apply a force to the proof mass , a second electrode configured to sense a motion of the proof mass and output a signal corresponding to the sensed motion of the proof mass , and a circuit board configured to connect the first and second electrodes to ground.