mhurhangee/patent-ind-claim-en huggingface dataset:
Device for dispensing a fluid substance, comprising an external container inside which a containment element is provided, formed by a deformable part and by a substantially rigid neck , the neck having a first flange abutting a free end of the external container at its mouth, an intermediate element having a cup-shaped part inserted in the neck and fixed to the external container so that the first flange is sandwiched between said free end and the intermediate element , the cup-shaped part providing an opening in communication with an internal part of the deformable part , inside the cup-shaped part there is a valve element configured to be moved by the body of an airless pump so that, when the pump body is absent or in a non-used position, the valve element is in a first position of stable closing of the opening , while when the pump body is pushed into a position of use, the valve element is in a second position of stable opening of said opening , the valve element providing an elastic system which keeps the valve element elastically in said first position, characterized in that the elastic system comprises a plurality of fins (12A, 12B, ...) which, in said first position, meet a first step of the cup-shaped part , the fins, in said second position, fitting into a reduced diameter portion of the intermediate element .
Orthopaedic prosthesis, in particular intersomatic cage for vertebral stabilisation, comprising a generally parallelepiped body having two respectively upper and lower opposite faces , with reference to an implanted position of the cage in the intervertebral space of a subject with an upright vertebral column, provided with respective anchoring formations , said prosthesis incorporating a plurality of leds with controlled emission of ultraviolet rays, characterised in that the leds with controlled emission of ultraviolet rays are arranged at least on the upper and lower faces of the body of the cage and they are applied on at least part of said anchoring formations .
A method for operating a base station comprising: determining, using an electronic processor of the base station, that a traffic load on a narrowband transceiver of the base station is increasing; determining, using the electronic processor , a number of additional carrier channels to operate the narrowband transceiver within a predefined blocking rate, wherein the blocking rate is the time before a push-to-talk action results in an outbound or inbound communication; reducing, using the electronic processor , a bandwidth of a broadband transceiver of the base station based on the number of additional carrier channels; and assigning, using the electronic processor , additional carrier channels to the narrowband transceiver to operate the narrowband transceiver with the number of additional carrier channels. determining, using an electronic processor of the base station, that a traffic load on a narrowband transceiver of the base station is increasing; determining, using the electronic processor , a number of additional carrier channels to operate the narrowband transceiver within a predefined blocking rate, wherein the blocking rate is the time before a push-to-talk action results in an outbound or inbound communication; reducing, using the electronic processor , a bandwidth of a broadband transceiver of the base station based on the number of additional carrier channels; and assigning, using the electronic processor , additional carrier channels to the narrowband transceiver to operate the narrowband transceiver with the number of additional carrier channels.
A composition having D-psicose as an active ingredient for use in the prevention of a disease connected with MCP-1 chemokine secretion, wherein the disease is arteriosclerosis.
A robot comprising: a three-dimensional shape detecting sensor to detect a three dimensional shape of a travel surface existing in a forward travelling direction of the robot ; a posture stabilizer to stabilize a posture of a body of the robot ;a feature data generator to generate feature data of the detected three dimensional shape; an inclination angle prediction generator to generate a prediction value of an inclination angle of the body when the robot is to reach a position on the travel surface in the forward travelling direction at a future time point based on the feature data and a prediction model; an inclination angle sensor to detect the inclination angle of the body ; and an overturn prevention controller to control the posture stabilizer to prevent an overturn of the robot based on the prediction value, characterised in that the robot further comprises a learning data generator to generate a combination of the feature data of the three dimensional shape of the travel surface generated by the feature data generator and the inclination angle detected by the inclination angle sensor when the robot is to reach the position on the travel surface in the forward travelling direction at the future time point as the learning data; a prediction model generator to generate the prediction model by applying machine learning using the generated learning data; and a prediction correction unit to correct the prediction value based on the inclination angle detected by the inclination angle sensor . a three-dimensional shape detecting sensor to detect a three dimensional shape of a travel surface existing in a forward travelling direction of the robot ; a posture stabilizer to stabilize a posture of a body of the robot ;a feature data generator to generate feature data of the detected three dimensional shape; an inclination angle prediction generator to generate a prediction value of an inclination angle of the body when the robot is to reach a position on the travel surface in the forward travelling direction at a future time point based on the feature data and a prediction model; an inclination angle sensor to detect the inclination angle of the body ; and an overturn prevention controller to control the posture stabilizer to prevent an overturn of the robot based on the prediction value, characterised in that the robot further comprises a learning data generator to generate a combination of the feature data of the three dimensional shape of the travel surface generated by the feature data generator and the inclination angle detected by the inclination angle sensor when the robot is to reach the position on the travel surface in the forward travelling direction at the future time point as the learning data; a prediction model generator to generate the prediction model by applying machine learning using the generated learning data; and a prediction correction unit to correct the prediction value based on the inclination angle detected by the inclination angle sensor .
A vehicle comprising: a plurality of charging ports comprising a first charging port (100-1) and a second charging port (100-2) electrically coupled to a first connector (1000-1) and a second connector (1000-2) respectively, each of the first and second connectors configured to receive power from a first charger (10-1) and a second charger (10-2) respectively; and a controller configured to receive a charging start command; characterised in that : upon receiving the charging start command, the controller is further configured to control operation of the vehicle to sequentially pair with the first charger (10-1) and the second charger (10-2) by transmitting a first paring request signal to the first charger (10-1) and a second pairing request signal to the second charger (10-2) when the first connector and the second connector are electrically coupled to the first and second charging ports (100-1, 100-2) respectively, wherein the second pairing request signal to the second charger (10-2) is transmitted when pairing between the vehicle and the first charger (10-1) is completed. a plurality of charging ports comprising a first charging port (100-1) and a second charging port (100-2) electrically coupled to a first connector (1000-1) and a second connector (1000-2) respectively, each of the first and second connectors configured to receive power from a first charger (10-1) and a second charger (10-2) respectively; and a controller configured to receive a charging start command; characterised in that : upon receiving the charging start command, the controller is further configured to control operation of the vehicle to sequentially pair with the first charger (10-1) and the second charger (10-2) by transmitting a first paring request signal to the first charger (10-1) and a second pairing request signal to the second charger (10-2) when the first connector and the second connector are electrically coupled to the first and second charging ports (100-1, 100-2) respectively, wherein the second pairing request signal to the second charger (10-2) is transmitted when pairing between the vehicle and the first charger (10-1) is completed.
A mobile high density read chamber for scanning a plurality of RFID tagged items, comprising: an enclosure including an upper surface , a lower surface , and a sidewall extending between the upper and lower surfaces to define an interior of the enclosure; an access associated with the sidewall and configured to be at least partially opened to access the interior of the enclosure from an outside location; an RFID reader including at least one antenna positioned within the interior of the enclosure and configured to emit a scanning signal within the interior of the enclosure; characterized by a base supporting the enclosure via vertical supports , the base comprising an upper surface defining a horizontal support surface spaced below the enclosure; and at least one movement member supporting the base and configured to engage a ground surface for transport of the mobile high density read chamber. an enclosure including an upper surface , a lower surface , and a sidewall extending between the upper and lower surfaces to define an interior of the enclosure; an access associated with the sidewall and configured to be at least partially opened to access the interior of the enclosure from an outside location; an RFID reader including at least one antenna positioned within the interior of the enclosure and configured to emit a scanning signal within the interior of the enclosure; a base supporting the enclosure via vertical supports , the base comprising an upper surface defining a horizontal support surface spaced below the enclosure; and at least one movement member supporting the base and configured to engage a ground surface for transport of the mobile high density read chamber.
Ultrasonic transducer for an ultrasonic flowmeter , having a transducer housing and having a transducer element arranged in the transducer housing for generating and/or receiving ultrasonic signals at least in a useful frequency range of the ultrasonic transducer , wherein the transducer housing has an ultrasound window in the region of the transducer element for transmitting the ultrasound signals between the interior and the exterior of the transducer housing , wherein the transducer housing has a fastening section for fastening the ultrasonic transducer to a measuring tube , and wherein the transducer housing extends with a transition section between the ultrasound window and the fastening section characterized in that the transition section of the transducer housing has, in an attenuation region , at least one phononic crystal with an acoustic band gap in the useful frequency range of the ultrasound transducer , so that the transmission of ultrasonic signals in the useful frequency range between the ultrasound window and the fastening section is at least attenuated.
Device for the thermal management of an electric power train of an electric or hybrid motor vehicle, comprising a main housing accommodating at least an electric motor comprising a cooling circuit and a mechanical speed reducer coupled to said motor and comprising a lubrication circuit capable of being connected to said cooling circuit of said motor, said main housing comprising an oil sump , common to said cooling circuit and to said lubrication circuit, arranged in a lower part of said main housing , characterized in that said main housing comprises a partition for the separation of said main housing into two parts, in which there are arranged respectively, on the one hand, said motor and its cooling circuit, and, on the other hand, said speed reducer and its lubrication circuit, said oil sump comprising an oil overflow passage through said separating partition and, beneath said oil overflow passage , an oil channel extending through said separating partition between said two parts, said oil channel including one end discharging into said oil sump on the speed reducer side provided with a valve for regulating the flow of oil between said two parts, controlled by the temperature of the oil, and one opposite free end, discharging into said oil sump on the motor side, said controlled valve being adapted to close the passage of oil in said oil channel between said two parts when the temperature of the oil on the speed reducer side reaches a predefined temperature threshold, so that the oil stored on the motor side and the oil stored on the speed reducer side do not mix when said temperature threshold is reached.
A system for identifying an end expirium, the system comprising: a catheter configured to be inserted into a cavity of a patient at least one sensor configured to detect a position of the catheter; and a processor configured to (i) identify an initial end expirium prior to ablation among a plurality of end expiriums, (ii) determine a catheter velocity during ablation, and (iii) identify an estimated end expirium during ablation among the plurality of end expiriums when the velocity of the catheter is less than a predetermined velocity, and a location of the estimated end expirium is less than a predetermined distance from a location of the initial end expirium prior to ablation. a catheter configured to be inserted into a cavity of a patient at least one sensor configured to detect a position of the catheter; and a processor configured to (i) identify an initial end expirium prior to ablation among a plurality of end expiriums, (ii) determine a catheter velocity during ablation, and (iii) identify an estimated end expirium during ablation among the plurality of end expiriums when the velocity of the catheter is less than a predetermined velocity, and a location of the estimated end expirium is less than a predetermined distance from a location of the initial end expirium prior to ablation.
A variable nozzle mechanism for a variable capacity turbocharger , the variable nozzle mechanism comprising: a first plate having an annular shape; a second plate facing the first plate and having an annular shape, the second plate and the first plate defining an exhaust gas path in between; a plurality of nozzle vanes rotatably supported between the first plate and the second plate ; and an annular member inserted on an inner circumference side of the first plate , wherein the first plate includes a front surface facing the exhaust gas path and a back surface on an opposite side to the front surface , the annular member includes a front surface facing the exhaust gas path and a back surface on an opposite side to the front surface , a gap is provided between the first plate and the annular member , the gap extending along a thickness direction of the first plate , from a point between an inner circumference edge of the front surface of the first plate and an outer circumference edge of the front surface of the annular member , and the annular member includes a press fitting portion which is press fit to the first plate , at a portion further toward a side of the back surface of the annular member than the gap . a first plate having an annular shape; a second plate facing the first plate and having an annular shape, the second plate and the first plate defining an exhaust gas path in between; a plurality of nozzle vanes rotatably supported between the first plate and the second plate ; and an annular member inserted on an inner circumference side of the first plate , wherein the first plate includes a front surface facing the exhaust gas path and a back surface on an opposite side to the front surface , the annular member includes a front surface facing the exhaust gas path and a back surface on an opposite side to the front surface , a gap is provided between the first plate and the annular member , the gap extending along a thickness direction of the first plate , from a point between an inner circumference edge of the front surface of the first plate and an outer circumference edge of the front surface of the annular member , and the annular member includes a press fitting portion which is press fit to the first plate , at a portion further toward a side of the back surface of the annular member than the gap .
Cellulose acetate microfibrils having: a cellulose triacetate I crystal structure; an average substitution degree of 2.0 or more but 3.0 or less; and a number-average fiber diameter of 2 nm or more but 400 nm or less, wherein the average substitution degree and the number-average fiber diameter are determined according to the methods disclosed in the description. a cellulose triacetate I crystal structure; an average substitution degree of 2.0 or more but 3.0 or less; and a number-average fiber diameter of 2 nm or more but 400 nm or less, wherein the average substitution degree and the number-average fiber diameter are determined according to the methods disclosed in the description.
A grooming device comprising: a. a handle comprising; i. a first portion comprising a housing , a proximal end and a distal end ii. a displacement sensor positioned within the housing; iii. a power source positioned within the housing, the power source providing power to the displacement sensor; iv. a neck portion comprising a proximal end , a distal end and a location element , the proximal end of the neck portion comprising an implement connecting structure , the distal end of the neck portion being pivotably connected to the proximal end of the first portion about a handle pivot axis, as the neck portion pivots about the handle pivot axis relative to the first portion the displacement sensor detects displacement of the location element; and b. a grooming implement connected to the implement connecting structure, characterized in that the grooming device further comprises an eject button to eject the grooming implement from the handle, the location element being negatively displaced upon depression of the eject button providing an indication that the grooming implement has been ejected. a. a handle comprising; i. a first portion comprising a housing , a proximal end and a distal end ii. a displacement sensor positioned within the housing; iii. a power source positioned within the housing, the power source providing power to the displacement sensor; iv. a neck portion comprising a proximal end , a distal end and a location element , the proximal end of the neck portion comprising an implement connecting structure , the distal end of the neck portion being pivotably connected to the proximal end of the first portion about a handle pivot axis, as the neck portion pivots about the handle pivot axis relative to the first portion the displacement sensor detects displacement of the location element; and i. a first portion comprising a housing , a proximal end and a distal end ii. a displacement sensor positioned within the housing; iii. a power source positioned within the housing, the power source providing power to the displacement sensor; iv. a neck portion comprising a proximal end , a distal end and a location element , the proximal end of the neck portion comprising an implement connecting structure , the distal end of the neck portion being pivotably connected to the proximal end of the first portion about a handle pivot axis, as the neck portion pivots about the handle pivot axis relative to the first portion the displacement sensor detects displacement of the location element; and b. a grooming implement connected to the implement connecting structure, characterized in that the grooming device further comprises an eject button to eject the grooming implement from the handle, the location element being negatively displaced upon depression of the eject button providing an indication that the grooming implement has been ejected.
Dosing plant for powder products comprising a feeder having: - a container having a bottom portion provided with an outlet opening , - an extraction and dosing conveyor arranged beneath said outlet opening , and a stirrer interposed between said container and said conveyor , said stirrer comprising two juxtaposed grids and actuator means for displacing said two grids with reciprocating motion so that when a grid moves in one direction, the other grid moves in the opposite direction, characterised in that each of said grids has a vertical upper portion and an oblique lower portion and extends inside said bottom portion of the container , said grids being connected to each other by means of at least one articulated frame defining an articulated parallelogram by which said two grids are moved vertically, said frame comprises an upper arm connected to the upper portions of the juxtaposed grids , and two vertical elements , each of which is integrally joined to the respective grid , and each end of the upper arm is connected in an articulated manner to the upper end of the respective vertical element . - a container having a bottom portion provided with an outlet opening , - an extraction and dosing conveyor arranged beneath said outlet opening , and a stirrer interposed between said container and said conveyor , said stirrer comprising two juxtaposed grids and actuator means for displacing said two grids with reciprocating motion so that when a grid moves in one direction, the other grid moves in the opposite direction,
A screening system for screening an item , the screening system comprising a detection apparatus comprising an emitter portion to generate a primary beam of ionising radiation and a detector portion to detect an absorption signal and at least one of a diffraction signal and a scattering signal; the screening system further comprising a rotatable platform adapted to receive the item ; and the screening system being characterized in a mechanical arrangement adapted to translate the detection apparatus along a translation axis to scan the item with the primary beam; wherein the translation axis is substantially parallel to a surface of the rotatable platform ; wherein the rotatable platform is rotatable around a rotational axis ; wherein the primary beam has a characteristic propagation axis associated with it; and wherein the rotational axis is substantially parallel to the characteristic propagation axis ; and in the primary beam being a conical shell beam of ionising radiation. a detection apparatus comprising an emitter portion to generate a primary beam of ionising radiation and a detector portion to detect an absorption signal and at least one of a diffraction signal and a scattering signal; the screening system further comprising a rotatable platform adapted to receive the item ; and the screening system being characterized in a mechanical arrangement adapted to translate the detection apparatus along a translation axis to scan the item with the primary beam; wherein the translation axis is substantially parallel to a surface of the rotatable platform ; wherein the rotatable platform is rotatable around a rotational axis ; wherein the primary beam has a characteristic propagation axis associated with it; and wherein the rotational axis is substantially parallel to the characteristic propagation axis ; and in the primary beam being a conical shell beam of ionising radiation.