mhurhangee/patent-ind-claim-en huggingface dataset:
A furred animal grooming appliance comprising a body forming a handle and able to be connected to a vacuum cleaner, the distal end of the body part forming a head part providing a working opening which supports pivotally at its forward edge a comb which is movable between a deployed position to enable grooming of the coats of furred animals and a retracted position in which it is retracted into said head part to remove accumulated hair from said comb and swept by an airflow passing through said appliance generated by a vacuum cleaner to which the proximal end of said handle can be connected, and characterised by further comprising a stop arm fixed to said comb and having a weighted free end which enables the displacement of said comb between said positions by flicking said appliance , sharply downwards in a short arc so that centrifugal force throws said stop arm outwardly thereby displacing the comb to its retracted position.
A filling machine for filling a package of a web of packaging material with a food product, comprising a jaw system adapted to seal said package after being filled with said food product, said jaw system being equipped with means for providing a unique mark on said package , a sensor arranged downstream of said jaw system and adapted to detect said mark on said package , and a cutting knife adapted to cut said package from said web of packaging material, wherein said cutting knife is movably arranged in said filling machine , such that said cutting knife can be adjusted in relation to said package based on said detected mark before cutting said package from said web of packaging material, characterized in that said unique mark is created on said package by means of magnetisable paint and wherein said means for providing said unique mark on said package is provided in or on a jaw of said jaw system .
A navigation system using Visible Light Communications (VLC), the navigation system comprising a plurality of VLC transmitters (201 to 207), each of the VLC transmitters being configured to transmit a positioning signal comprising a navigation message including a time information , characterised in that the time information is a time at which a specific part of said navigation message is transmitted by a VLC transmitter, the time information being steered from a system time provided by a GNSS receiver .
A package substrate comprising: a substrate comprising a first side; a capacitor embedded in the substrate, wherein the capacitor comprises a first electrode and a second electrode ; a first metal plate extending laterally in the substrate, wherein the first metal plate is disposed directly on the first electrode of the capacitor and extends laterally from a first side of the first electrode; and a plurality of vias , including a first via, extending perpendicular to the first metal plate and connected to the first metal plate from the first side of the substrate. a substrate comprising a first side; a capacitor embedded in the substrate, wherein the capacitor comprises a first electrode and a second electrode ; a first metal plate extending laterally in the substrate, wherein the first metal plate is disposed directly on the first electrode of the capacitor and extends laterally from a first side of the first electrode; and a plurality of vias , including a first via, extending perpendicular to the first metal plate and connected to the first metal plate from the first side of the substrate.
A method for manufacturing a metal grating structure (DG), comprising: forming a resist layer on a principal plane of an n-type silicon substrate ; patterning the resist layer to remove the patterned portion of the resist layer ; etching the silicon substrate corresponding to the removed portion of the resist layer by a dry etching method to form a concave portion of a predetermined depth; forming an insulating layer on an inner surface of the concave portion in the silicon substrate by a thermal oxidation method; removing a portion of the insulating layer formed on a bottom portion of the concave portion; and filling the concave portion with metal by an electroforming method with application of a voltage to the silicon substrate . forming a resist layer on a principal plane of an n-type silicon substrate ; patterning the resist layer to remove the patterned portion of the resist layer ; etching the silicon substrate corresponding to the removed portion of the resist layer by a dry etching method to form a concave portion of a predetermined depth; forming an insulating layer on an inner surface of the concave portion in the silicon substrate by a thermal oxidation method; removing a portion of the insulating layer formed on a bottom portion of the concave portion; and filling the concave portion with metal by an electroforming method with application of a voltage to the silicon substrate .
A tire pressure detector disposed at a wheel , wherein the wheel includes a rim and a tire mounted around the rim , with a pressure space formed between the tire and the rim , the rim including an air tap connected with the pressure space , the tire pressure detector comprising a main body and a detection module , wherein the main body is movably disposed in the pressure space and is provided with a housing space ; and the detection module is disposed in the housing space , the detection module further including a sensing unit , a circuit substrate , a central processing unit , a wireless transmission unit and a power unit that are coupled with each other, the power unit providing a power, the sensing unit , the wireless transmission unit and the power unit disposed on the circuit substrate , characterized in that the wireless transmission unit has a first antenna section , a second antenna section being bent by an angle with respect to the first antenna section , and a transition section between the first antenna section and the second antenna section ; the first antenna section and the second antenna section being formed in a straight line shape, respectively; the angle included by the first section and the second section being ninety degrees; the first antenna section , the second antenna section , and the transition portion being arranged in parallel to the circuit substrate ; the sensing unit sensing an air pressure in the pressure space and producing a pressure signal, the central processing unit receiving the pressure signal and transmitting the pressure signal through the wireless transmission unit . the main body is movably disposed in the pressure space and is provided with a housing space ; and the detection module is disposed in the housing space , the detection module further including a sensing unit , a circuit substrate , a central processing unit , a wireless transmission unit and a power unit that are coupled with each other, the power unit providing a power, the sensing unit , the wireless transmission unit and the power unit disposed on the circuit substrate , characterized in that the wireless transmission unit has a first antenna section , a second antenna section being bent by an angle with respect to the first antenna section , and a transition section between the first antenna section and the second antenna section ; the first antenna section and the second antenna section being formed in a straight line shape, respectively; the angle included by the first section and the second section being ninety degrees; the first antenna section , the second antenna section , and the transition portion being arranged in parallel to the circuit substrate ; the sensing unit sensing an air pressure in the pressure space and producing a pressure signal, the central processing unit receiving the pressure signal and transmitting the pressure signal through the wireless transmission unit .
An apparatus, in particular for mounting in a motor vehicle, having a receiving slot and at least one, in particular two, module housing(s) (1 or 1') mounted in the receiving slot , wherein the at least one module housing (1 or 1') is able to be installed selectively as a single module housing (1 or 1') or as a combination of two module housings (1 and 1') in the receiving slot , wherein the receiving slot is designed in a cuboidal manner with a defined slot width , slot height and slot depth, with a rectangular, open mounting side corresponding to the slot width and slot height and with a slot bottom wall, a slot top wall and two opposite slot side walls, wherein the at least one module housing has a housing body of cuboidal, in particular slimline, basic shape, wherein the housing width is equal to the slot width and two of the at least one module housing have, in combination in a manner located congruently one on top of the other, an overall height equal to the slot height , characterized in that each of the at least one module housing is identical in construction, in that at least two supporting bars (7, 8; 7', 8') that are located laterally opposite one another are provided in lateral regions, in a manner offset in each case within the slot depth and in the slot depth direction from the respective bearing face , assigned to one another in the combined case located one on top of the other, of the two basic bodies , said supporting bars (7, 8; 7', 8') projecting at right angles away from the bearing face with a local housing overall height made up of the height of the housing body and the height of the supporting bars (7, 8; 7', 8'), which is equal to the slot height , and in that each supporting bar (7, 8; 7', 8') is assigned, in a laterally opposite manner in the housing body , a recess (11, 12; 11', 12') designed in a negative form of the supporting bar (7, 8; 7', 8'), such that, in the case of combined module housings , the supporting bars (7, 8 and 7', 8', respectively) of one housing body engage in associated recesses (12', 11' and 12, 11, respectively) of the other housing body .
A computer-implemented method comprising: capturing multiple images with depth data of a head of a subject; and determining a rotation matrix and a translation vector associated with a pose of the head in each image of the multiple images relative to a reference coordinate frame using the depth data, wherein determining the rotation matrix and translation vector associated with the pose of the head comprises: extracting feature points on the head in each of the multiple images; generating an edge map of the head using the depth data; and discarding the feature points on edges of the edge map; using the depth data associated with the remaining feature points to determine the rotation matrix and the translation vector of the pose of the head; and tracking the head in the multiple images. capturing multiple images with depth data of a head of a subject; and determining a rotation matrix and a translation vector associated with a pose of the head in each image of the multiple images relative to a reference coordinate frame using the depth data, wherein determining the rotation matrix and translation vector associated with the pose of the head comprises: extracting feature points on the head in each of the multiple images; generating an edge map of the head using the depth data; and discarding the feature points on edges of the edge map; using the depth data associated with the remaining feature points to determine the rotation matrix and the translation vector of the pose of the head; and extracting feature points on the head in each of the multiple images; generating an edge map of the head using the depth data; and discarding the feature points on edges of the edge map; using the depth data associated with the remaining feature points to determine the rotation matrix and the translation vector of the pose of the head; and tracking the head in the multiple images.
A fluid flow meter comprising: a hollow fitting adapted to be attached to a valve or pipeline and extend at least partially through an insertion aperture thereof such that a first end of the fitting is disposed in the valve or pipeline; a measurement cylinder attached to the first end of the fitting and including a fluid vortex generating obstruction , and a sensor body having a sensor element at an end thereof, characterised in that the measurement cylinder is pivotably attached to the first end of the fitting, and is pivotable between a position generally aligned with a primary axis of the fitting for insertion through the aperture of the valve or pipeline and a position generally transverse to the primary axis of the fitting; and the measurement cylinder includes a slot adapted to receive the sensor element therethrough and an inlet and an outlet for fluid passing through the cylinder when it is in the position generally transverse to the primary axis of the fitting, wherein with the measurement cylinder being in the position generally transverse to the primary axis of the fitting the sensor body is insertable into the hollow fitting until the sensor element extends through the slot in the wall of the measurement cylinder and is at least partially disposed in the measurement cylinder, such that the sensor element is generally aligned with the fluid vortex generating obstruction , and is spaced from the fluid vortex generating obstruction such that vorticec generated by the fluid vortex generating obstruction can be detected. a hollow fitting adapted to be attached to a valve or pipeline and extend at least partially through an insertion aperture thereof such that a first end of the fitting is disposed in the valve or pipeline; a measurement cylinder attached to the first end of the fitting and including a fluid vortex generating obstruction , and a sensor body having a sensor element at an end thereof, characterised in that the measurement cylinder is pivotably attached to the first end of the fitting, and is pivotable between a position generally aligned with a primary axis of the fitting for insertion through the aperture of the valve or pipeline and a position generally transverse to the primary axis of the fitting; and the measurement cylinder includes a slot adapted to receive the sensor element therethrough and an inlet and an outlet for fluid passing through the cylinder when it is in the position generally transverse to the primary axis of the fitting, wherein with the measurement cylinder being in the position generally transverse to the primary axis of the fitting the sensor body is insertable into the hollow fitting until the sensor element extends through the slot in the wall of the measurement cylinder and is at least partially disposed in the measurement cylinder, such that the sensor element is generally aligned with the fluid vortex generating obstruction , and is spaced from the fluid vortex generating obstruction such that vorticec generated by the fluid vortex generating obstruction can be detected.
A method of forming a wall of a floating caisson comprising: providing a slab on a submersible platform ; providing one or more base supports on top of the slab , the base supports having a first outer face and a second outer face ; forming a first wall portion by spraying concrete on the first and the second outer faces; lowering the platform below a water level; and forming one or more subsequent wall portions on the first wall portion. providing a slab on a submersible platform ; providing one or more base supports on top of the slab , the base supports having a first outer face and a second outer face ; forming a first wall portion by spraying concrete on the first and the second outer faces; lowering the platform below a water level; and forming one or more subsequent wall portions on the first wall portion.
A multicopter system comprising: a chassis , with at least one lift motor and at least four control motors mounted to the chassis ; at least two lift propellers configured to create a vertical thrust; at least four control propellers configured to generate a horizontal thrust; a transmission connecting the at least one lift motor to the at least two lift propellers ; the at least four mounted control motors each connected to a respective control propeller , wherein the at least two lift propellers and the control propellers are coplanar or in parallel planes; and wherein the lift propellers are at least twice as long as the control propellers ; a computer mounted on the chassis , the computer in communication with the at least four control motors and the at least one lift motor, the computer configured to control the at least four control motors to vary rotation speeds of the control propellers and control the at least one lift motor to vary rotation speed of the at least two lift propellers , the rotation speed of the at least two lift propellers being varied less frequently than the rotation speeds of the control propellers ; an electric power source mounted on the chassis , the electric power source connected to the at least four control motors; and an antenna mounted on the chassis , in communication with the computer. a chassis , with at least one lift motor and at least four control motors mounted to the chassis ; at least two lift propellers configured to create a vertical thrust; at least four control propellers configured to generate a horizontal thrust; a transmission connecting the at least one lift motor to the at least two lift propellers ; the at least four mounted control motors each connected to a respective control propeller , wherein the at least two lift propellers and the control propellers are coplanar or in parallel planes; and wherein the lift propellers are at least twice as long as the control propellers ; a computer mounted on the chassis , the computer in communication with the at least four control motors and the at least one lift motor, the computer configured to control the at least four control motors to vary rotation speeds of the control propellers and control the at least one lift motor to vary rotation speed of the at least two lift propellers , the rotation speed of the at least two lift propellers being varied less frequently than the rotation speeds of the control propellers ; an electric power source mounted on the chassis , the electric power source connected to the at least four control motors; and an antenna mounted on the chassis , in communication with the computer.
A process of preparing Fondaparinux sodium comprising converting a compound of formula ABCDE4 to Fondaparinux sodium: wherein the conversion is conducted at a reaction pH of 7.0 to 8.5 in the presence of a sulfur trioxide-amine complex.
Lavatory arrangement (L) comprising a vacuum flushing system, wherein the lavatory arrangement (L) comprises a fresh water tank and a folding toilet bowl , characterized in that the lavatory arrangement (L) comprises a funnel arrangement for filling the fresh water tank of the lavatory arrangement (L) with fresh water from the inside of a vehicle, preferably an aircraft, in a case where the lavatory arrangement (L) is installed in such a vehicle. wherein the lavatory arrangement (L) comprises a fresh water tank and a folding toilet bowl , characterized in that the lavatory arrangement (L) comprises a funnel arrangement for filling the fresh water tank of the lavatory arrangement (L) with fresh water from the inside of a vehicle, preferably an aircraft, in a case where the lavatory arrangement (L) is installed in such a vehicle.
Filter device for a water-conducting domestic appliance , the filter device having: - a filter housing with a dirty water inlet , a filtered water outlet and a filtrate outlet , through which flow takes place, - at least one surface filter and a holder for the surface filter in the filter housing , the surface filter having a mesh size and an angle to the horizontal, - a filtrate chamber in the filter housing for collecting filtrate that has been retained by the surface filter , the surface filter , the dirty water inlet and the filtered water outlet being arranged in relation to one another in such a way that a flow direction for water runs from the dirty water inlet to the filtered water outlet through the surface filter , wherein the filtrate chamber is accessible by means of the filtrate outlet for removing the filtrate from the filtrate chamber , characterized in that - the at least one surface filter is variable in shape for changing its mesh size. - a filter housing with a dirty water inlet , a filtered water outlet and a filtrate outlet , through which flow takes place, - at least one surface filter and a holder for the surface filter in the filter housing , the surface filter having a mesh size and an angle to the horizontal, - a filtrate chamber in the filter housing for collecting filtrate that has been retained by the surface filter , the surface filter , the dirty water inlet and the filtered water outlet being arranged in relation to one another in such a way that a flow direction for water runs from the dirty water inlet to the filtered water outlet through the surface filter , wherein the filtrate chamber is accessible by means of the filtrate outlet for removing the filtrate from the filtrate chamber , characterized in that the surface filter , the dirty water inlet and the filtered water outlet being arranged in relation to one another in such a way that a flow direction for water runs from the dirty water inlet to the filtered water outlet through the surface filter , wherein the filtrate chamber is accessible by means of the filtrate outlet for removing the filtrate from the filtrate chamber , characterized in that - the at least one surface filter is variable in shape for changing its mesh size.
Manually operated portable working device comprising a motor for driving an interchangeable working tool , and comprising a control unit for controlling the operation of the motor , wherein the control unit determines the rotational speed (n) and/or the output (P) of the motor , wherein the motor can be operated by the control unit in a first operating mode (I) with a reduced rotational speed (n 0 ) and/or a reduced output (P 0 ) as compared with a further operating mode (II), and in the further operating mode (II) with an increased rotational speed (n 1 ) and/or an increased output (P 1 ) as compared with the first operating mode (I), and wherein the control unit is connected to a detection unit which has a reading unit which detects an identifier of the working tool mounted on the working device, for which purpose the working tool bears an RFID tag and, depending on an evaluation of the RFID tag , an enable signal is formed, and the control unit is designed in such a way that, depending on the enable signal, an associated operating mode (I, II) is set, wherein the reading unit is an RFID transmitting unit and an RFID receiving unit, which is arranged on the working device in a rotationally fixed manner, and the control device is designed in such a way that, when the enable signal is absent, it switches into a safety mode, and the safety mode corresponds to the operating mode (I) with a lowered rotational speed (n 0 ) and/or a lowered output (P 0 ), wherein, in the first operating mode (I), the motor is to be operated exclusively with the lowered rotational speed (n 0 ) and/or lowered output (P 0 ).