mhurhangee/patent-ind-claim-en huggingface dataset:
An autonomous cleaning robot comprising: a main body ; a cleaning assembly mounted on the main body ; wherein the cleaning assembly comprises a first cleaning subassembly detachably mounted on the main body , when the first cleaning subassembly is loaded or removed from the main body , the first cleaning subassembly moves in the forward direction or the backward direction of the main body ; wherein the first cleaning subassembly comprises a liquid container comprising: a container case and a water outlet filter , wherein the container case defines a water outlet thereon and a liquid accommodating room therein, the water outlet communicates with the liquid accommodating room, the water outlet filter is mounted on the water outlet , and the water outlet filter is configured to regulate the rate of the liquid dispensed from the liquid accommodating room; wherein an obstacle-assisting wheel is located at a bottom end of the container case in a backward direction thereof; characterized in that the autonomous cleaning robot further comprises: a driving wheel module , the driving wheel module comprising a driving wheel rotatable mounted on the main body , wherein when the main body is in a horizontal state, a lowest point of the obstacle-assisting wheel on the liquid container is higher than a lowest point of the driving wheel. a main body ; a cleaning assembly mounted on the main body ; wherein the cleaning assembly comprises a first cleaning subassembly detachably mounted on the main body , when the first cleaning subassembly is loaded or removed from the main body , the first cleaning subassembly moves in the forward direction or the backward direction of the main body ; wherein the first cleaning subassembly comprises a liquid container comprising: a container case and a water outlet filter , wherein the container case defines a water outlet thereon and a liquid accommodating room therein, the water outlet communicates with the liquid accommodating room, the water outlet filter is mounted on the water outlet , and the water outlet filter is configured to regulate the rate of the liquid dispensed from the liquid accommodating room; wherein an obstacle-assisting wheel is located at a bottom end of the container case in a backward direction thereof; characterized in that the autonomous cleaning robot further comprises: a driving wheel module , the driving wheel module comprising a driving wheel rotatable mounted on the main body , wherein when the main body is in a horizontal state, a lowest point of the obstacle-assisting wheel on the liquid container is higher than a lowest point of the driving wheel.
Method for controlling a hydrodynamic retarder which can be uncoupled mechanically via a separating clutch in a motor vehicle, which has a revolving bladed rotor and a bladed stator or a revolving bladed rotor and a counter-rotating bladed rotor rotating in the opposite direction, which jointly form a working chamber which is filled with a working medium during braking operation and is emptied of working medium during non-braking operation, wherein, in braking operation, the rotor is driven via a drive train with an engaged separating clutch and, during the transition from braking operation to non-braking operation, the working chamber is emptied and the separating clutch is disengaged, wherein the transition from braking operation to non-braking operation is initiated by a request to switch off the retarder by a driver assistance system or by a vehicle driver actuating an input device, and the transition from non-braking operation to braking operation is initiated by a request to switch on the retarder by the driver assistance system or by the vehicle driver actuating an input device, characterized in that irrespective of the request to switch on the retarder by the driver assistance system or by the vehicle driver actuating the input device, the separating clutch is engaged at the start of a start-up operation of the motor vehicle if, when the motor vehicle is at a standstill, the working chamber is filled with working medium. wherein the transition from braking operation to non-braking operation is initiated by a request to switch off the retarder by a driver assistance system or by a vehicle driver actuating an input device, and the transition from non-braking operation to braking operation is initiated by a request to switch on the retarder by the driver assistance system or by the vehicle driver actuating an input device, characterized in that irrespective of the request to switch on the retarder by the driver assistance system or by the vehicle driver actuating the input device, the separating clutch is engaged at the start of a start-up operation of the motor vehicle if, when the motor vehicle is at a standstill, the working chamber is filled with working medium.
Air cleaner for removing air-polluting materials from an air stream, comprising a filter device which includes at least one filter layer held by a filter holder in said airflow substantially perpendicular to a main flow direction thereof and including a plurality of stick-shaped filter elements neighboring each other, said filter holder including a preferably bar-shaped holding element to which all filter elements of a filter layer are rigidly connected, said holding element extending across the filter layer in said airflow , and a longitudinal axis of said holding element extending perpendicular to a longitudinal axis of the filter elements or diagonally to a longitudinal axis of the filter elements by forming an angle between said longitudinal axes of about 30° to 90°, characterized in that said filter holder including said holding element is formed integrally with said filter elements in one piece of the same material, and the filter elements are made of a porous material wetted by a fluid.
A transmitting method for use by a transmitting apparatus for transmitting data and control information in a single carrier system, the method comprising: transmitting the data using a first coding rate, wherein the first coding rate depends on modulation and code information, the modulation and code information being derived from a channel quality information transmitted from a base station; and transmitting the control information using a second coding rate, wherein the second coding rate depends on both the modulation and code information and offset information transmitted from the base station, wherein the offset information changes the modulation and code information. transmitting the data using a first coding rate, wherein the first coding rate depends on modulation and code information, the modulation and code information being derived from a channel quality information transmitted from a base station; and transmitting the control information using a second coding rate, wherein the second coding rate depends on both the modulation and code information and offset information transmitted from the base station, wherein the offset information changes the modulation and code information.
A polymer nanoparticle composite comprising: a block copolymer comprising a non-charged hydrophilic polymer chain segment and an anionic polymer chain segment; and MnCaP that is producible by the reaction of HPO 4 2- with Ca 2+ and Mn 2+ .
A wall plug , comprising: a foot with an opening for inserting a fixing element ; a head ; and a strutting region between the foot and the head with a plurality of in a circumferential direction flush abutting but separate first and second strutting bars ; wherein at least a part of the strutting bars comprises in an axial direction of the wall plug in an alternating manner broader sections and narrower sections , which are formed by tooth structures, by which the first strutting bars and the second strutting bars are teethed with one another. a foot with an opening for inserting a fixing element ; a head ; and a strutting region between the foot and the head with a plurality of in a circumferential direction flush abutting but separate first and second strutting bars ; wherein at least a part of the strutting bars comprises in an axial direction of the wall plug in an alternating manner broader sections and narrower sections , which are formed by tooth structures, by which the first strutting bars and the second strutting bars are teethed with one another.
A distributed radio access network , arranged for connecting to a core network, comprising: a main radio equipment controller connected to at least one remote radio unit over a main optical path , a backup radio equipment controller connected for synchronization to the main radio equipment controller , and a protection optical path for connecting the at least one remote radio unit to the backup radio equipment controller in case of a failure in communication between the main radio equipment controller and the at least one remote radio unit over the main optical path such that a service remains running when the failure occurs wherein the protection optical path is longer than the main optical path and comprises a transmission capacity which is smaller than the transmission capacity over the main optical path such that in case of the failure in communication over the main optical path the backup radio equipment controller is configured to negotiate with the at least one remote radio unit a reduction in at least one of a total bandwidth of transmitted data, a transmission rate and a predetermined number of antennas arranged in the at least one remote radio unit . a main radio equipment controller connected to at least one remote radio unit over a main optical path , a backup radio equipment controller connected for synchronization to the main radio equipment controller , and a protection optical path for connecting the at least one remote radio unit to the backup radio equipment controller in case of a failure in communication between the main radio equipment controller and the at least one remote radio unit over the main optical path such that a service remains running when the failure occurs wherein the protection optical path is longer than the main optical path and comprises a transmission capacity which is smaller than the transmission capacity over the main optical path such that in case of the failure in communication over the main optical path the backup radio equipment controller is configured to negotiate with the at least one remote radio unit a reduction in at least one of a total bandwidth of transmitted data, a transmission rate and a predetermined number of antennas arranged in the at least one remote radio unit .
A method for representing a cartographic image in a geolocated synthetic viewing system for aircraft, said system consisting of a cartographic database representing the terrain crossed by the vehicle, means for geolocating said aircraft, means for graphical generation allowing a three-dimensional synthetic view of said terrain to be generated and a display device, characterised in that the position of the aircraft provided by said geolocation means is known with a predetermined level of precision (e), the angular position of each point of the synthetic view is known with an angular error ( α ) dependent on the distance (D) from said point to said aircraft and on the positional precision of said aircraft, when said angular error is less than or equal to a predetermined angular tolerance, the point is represented in a standard representation mode and when said angular error is greater than a predetermined angular tolerance, the point is represented in an uncertainty representation mode that differs from the standard representation mode.
A method for semi-preserving salted anchovies, characterized in that it comprises: - a presalting phase in which the anchovies are introduced in a tank of drinking water and Himalayan pink salt; - a phase in which the anchovies are beheaded and partially gutted; - a packing and maturation phase in which layers of anchovies and layers of Himalayan pink salt are arranged in an alternating manner in a container, subjecting the arrangement of anchovies and salt to pressure; - a cleaning phase in which the external salt is removed from the anchovies, the anchovies are completely gutted, the skin is removed, and they are introduced in a bath of drinking water and Himalayan pink salt to recover external salinity; - a draining phase in which excess moisture is removed from the anchovies; - a phase in which the anchovies are filleted and the anchovy fillets are canned together with edible oil. - a presalting phase in which the anchovies are introduced in a tank of drinking water and Himalayan pink salt; - a phase in which the anchovies are beheaded and partially gutted; - a packing and maturation phase in which layers of anchovies and layers of Himalayan pink salt are arranged in an alternating manner in a container, subjecting the arrangement of anchovies and salt to pressure; - a cleaning phase in which the external salt is removed from the anchovies, the anchovies are completely gutted, the skin is removed, and they are introduced in a bath of drinking water and Himalayan pink salt to recover external salinity; - a draining phase in which excess moisture is removed from the anchovies; - a phase in which the anchovies are filleted and the anchovy fillets are canned together with edible oil.
Cooking appliance such as a hot air fryer, which comprises a main body, a container removable from the main body and a basket removable from the container, a handling system which comprises configuration changing means allowing either to handle together the container incorporating the basket, or to handle the basket by itself, freed and released from the container, or to handle to the container by itself, freed and released from the basket, so as to allow a first method for cooking food in the basket incorporated in the container and a second method for cooking food directly in the container, the basket being extracted from it, characterised in that the handling system comprises a first handle arranged on the container , a second handle arranged on the basket , a removable assembling device arranged between the basket and the container for fixing the basket on the container or detach it from it, characterised in that the first handle comprises a housing zone configured to receive at least partially the second handle arranged on the basket when the basket is fixed onto the container and to allow a simultaneous gripping of said first and second handles .
A hot-rolled ferritic stainless steel material consisting of, by mass%, C: 0.001 to 0.08%, Si: 0.01 to 1.0%, Mn: 0.01 to 1.0%, P: 0.01 to 0.05%, S: 0.0002 to 0.01%, Cr: 10.0 to 25.0%, N: 0.001 to 0.05%, and optionally one type or two types or more of Ti: 0.01 to 0.4%, Nb: 0.01 to 0.6%, B: 0.0002 to 0.0030%, Al: 0.005 to 0.3%, Ni: 0.1 to 1%, Mo: 0.1 to 2.0%, Cu: 0.1 to 3.0%, V: 0.05 to 1.0%, Mg: 0.0002 to 0.0030%, Sn: 0.01 to 0.3%, Sb: 0.01 to 0.3%, Zr: 0.01 to 0.1%, Ta: 0.01 to 0.1%, Hf: 0.01 to 0.1%, W: 0.01 to 2.0%, Co: 0.01 to 0.2%, Ca: 0.0001 to 0.0030%, REM: 0.001 to 0.05%, and Ga: 0.0002 to 0.1%, having a balance of Fe and unavoidable impurities, having a thickness of 5 mm to 20 mm, and having an area ratio of crystal grains with a <011> direction within 15° from a rolling direction of 20% or more in a cross-section parallel to the rolling direction at any location between left and right ends of the steel sheet, wherein in a cross-section parallel to the rolling direction at any location between the left and right ends of the steel sheet, a sum of lengths of low-angle grain boundaries with a crystal misorientation of less than 15° is 10% or more with respect to a sum of lengths of crystal grain boundaries.
A method for producing a lead-free piezoelectric ceramic composition, the method comprising: performing calcining so as to obtain a mother phase calcined product (T220) being formed of an alkali perovskite oxide containing at least one of niobium and tantalum having piezoelectric characteristics; performing calcining so as to obtain a subphase calcined product (T240) being formed of a compound that contains titanium (Ti), mixing the mother phase calcined product and the subphase calcined product (T252), performing calcining the mixed mother phase calcined product and the subphase calcined product at a first temperature after the mixing (T254), pulverizing the calcined mixed mother phase calcined product and the subphase calcined product, producing a molded product by mixing and molding the calcined mixed mother phase calcined product and the subphase calcined product, which has been pulverized, at the first temperature (T258); and producing a lead-free piezoelectric ceramic composition, in which a first crystal phase is formed by binding a plurality of crystal grains of the first crystal powder in a deposited state and a second crystal phase is formed by melting the second crystal powder to fill spaces between the plurality of crystal grains of the first crystal phase, by firing the molded product at a second temperature higher than the first temperature. performing calcining so as to obtain a mother phase calcined product (T220) being formed of an alkali perovskite oxide containing at least one of niobium and tantalum having piezoelectric characteristics; performing calcining so as to obtain a subphase calcined product (T240) being formed of a compound that contains titanium (Ti), mixing the mother phase calcined product and the subphase calcined product (T252), performing calcining the mixed mother phase calcined product and the subphase calcined product at a first temperature after the mixing (T254), pulverizing the calcined mixed mother phase calcined product and the subphase calcined product, producing a molded product by mixing and molding the calcined mixed mother phase calcined product and the subphase calcined product, which has been pulverized, at the first temperature (T258); and producing a lead-free piezoelectric ceramic composition, in which a first crystal phase is formed by binding a plurality of crystal grains of the first crystal powder in a deposited state and a second crystal phase is formed by melting the second crystal powder to fill spaces between the plurality of crystal grains of the first crystal phase, by firing the molded product at a second temperature higher than the first temperature.
A system comprising a first device (201-205) and a second device (206-210), the system being configured for electrical stimulation of a brain of a person, the first device and the second device each comprising: a case configured to occupy a space within a burr hole or craniotomy in a skull; a subcutaneous electrode ; a lead attached to a lower surface of the case and configured to be implanted through the burr hole or craniotomy in the person's skull; at least one subcranial electrode disposed on a lower end of the lead so that said at least one subcranial electrode will be positioned at a target location in the patient's brain when the lead is implanted through the burr hole or craniotomy; a battery within the case; and control circuitry internal to the case configured to receive current from the battery and generate electric pulses at a pulse frequency, a pulse amplitude, a pulse width, and a duty cycle, selected to stimulate the patient's brain; and wherein the control circuitry of the first device and the second device are configured to synchronize the electric pulses between the first device and the second device so that electric current forms a loop, allowing current to flow interior and exterior to the skull and through at least one stimulation target, characterised in that said subcutaneous electrode is on the case configured to lie above the skull and under the scalp. a case configured to occupy a space within a burr hole or craniotomy in a skull; a subcutaneous electrode ; a lead attached to a lower surface of the case and configured to be implanted through the burr hole or craniotomy in the person's skull; at least one subcranial electrode disposed on a lower end of the lead so that said at least one subcranial electrode will be positioned at a target location in the patient's brain when the lead is implanted through the burr hole or craniotomy; a battery within the case; and control circuitry internal to the case configured to receive current from the battery and generate electric pulses at a pulse frequency, a pulse amplitude, a pulse width, and a duty cycle, selected to stimulate the patient's brain; and wherein the control circuitry of the first device and the second device are configured to synchronize the electric pulses between the first device and the second device so that electric current forms a loop, allowing current to flow interior and exterior to the skull and through at least one stimulation target, characterised in that said subcutaneous electrode is on the case configured to lie above the skull and under the scalp.
A turbine blade having a body enclosing a labyrinth of internal channels defining a flow path for a coolant received through an inlet formed in a terminal portion of the blade root, the labyrinth comprising; the inlet arranged on an axially upstream face of the terminal portion leading to a duct (36; 46) defined by a wall (38; 48); in use, a clearance space bounded by an external surface of the duct wall and a bucket groove of a disc in which the blade is carried; a first passage intersecting the duct (36; 46) at a first passage intersection and extending through the blade body towards a tip of the blade, a proximal end of the first passage being arranged, in use, to capture incoming coolant flow; and a second passage (35; 44) intersecting the duct (36; 46) at a second passage intersection at a position downstream of the first passage intersection; characterised in that (i) the clearance space has a cross-sectional area at the axially upstream face which is smaller than that of the inlet and defines a leakage path for air directed to the inlet , (ii) the intersections of the passages with the duct form a sequence of reducing cross-sectional areas in the flow path in an upstream to downstream direction within the duct, thereby introducing pressure drops into the first and second (35; 44) passages to control the volume of coolant consumed, and (iii) the wall (38;48) terminates at an axial position between the inlet and the second passage (35;44) intersection thereby increasing the cross-sectional area of the flow path at the duct relative to an adjacent cross-sectional area of the clearance space so as to balance the pressure of coolant in the duct with the pressure of coolant in the leakage path thereby reducing a mass flow of coolant entering the leakage path.