mhurhangee/patent-ind-claim-en huggingface dataset:
A dishwasher comprising a body , a washing tub which is disposed in the body and wherein the washing process is performed with the water taken from the mains line; a drying duct which is provided on the body and which provides the circulation of the humid air in the washing tub by taking the same out of the washing tub after the washing process, thus enabling the washed items to be dried; a heat pump which is disposed under the washing tub , having a first heat exchanger enabling the water to be used in the washing step to be heated by drawing heat from the environment, a second heat exchanger transferring the heat received from the first heat exchanger to the washing water and a compressor fluidly connected to the first heat exchanger and the second heat exchanger so as to realize the refrigerant cycle; at least one fan which enables the outer environment air to be delivered onto the first heat exchanger ; an air duct which is disposed between the washing tub and the body and which is connected to the drying duct ; a guiding member (11 which has a fixed end and a free end movable around the fixed and which has an open position (A) and a closed position (K); and a control unit which controls the movement of the guiding member between an open position (A) and a closed position (K), characterised in that - the fixed end is disposed on the first heat exchanger ; - in the closed position (K) the free end extends towards the rear wall of the body and the air blown by the fan and passing through the first heat exchanger is prevented from reaching the rear wall of the body so as to be guided to the lower side of the body , and - in the open position (A) the free end extends towards the rear wall of the washing tub (I3) when the fixed end is on the first heat exchanger such that the air passing through the first heat exchanger is allowed to be delivered to the drying duct via the air duct ; - the control unit is configured to control the position of the guiding member according to the humidity rate in the drying duct , which is detected by means of a humidity sensor disposed in the drying duct . - the fixed end is disposed on the first heat exchanger ; - in the closed position (K) the free end extends towards the rear wall of the body and the air blown by the fan and passing through the first heat exchanger is prevented from reaching the rear wall of the body so as to be guided to the lower side of the body , and - in the open position (A) the free end extends towards the rear wall of the washing tub (I3) when the fixed end is on the first heat exchanger such that the air passing through the first heat exchanger is allowed to be delivered to the drying duct via the air duct ; - the control unit is configured to control the position of the guiding member according to the humidity rate in the drying duct , which is detected by means of a humidity sensor disposed in the drying duct .
A folding and unfolding mechanism for front and rear leg assemblies of a frame, comprising a folding and unfolding control assembly and a front-rear leg rotating assembly, wherein the front-rear leg rotating assembly comprises: a rotating shaft adapted to be arranged on a seat body and used for rotatably connecting a front leg assembly to the seat body; a rear leg assembly supporting rod adapted to be used for connecting a rear leg assembly to the seat body; and a rear leg assembly rotating rod arranged on the front leg assembly and used for connecting the rear leg assembly to the front leg assembly, so that the rear leg assembly is driven to rotate reversely when the front leg assembly rotates around the rotating shaft; characterized in that the folding and unfolding control assembly comprises: a bolt adapted to be movably arranged on the seat body and capable of penetrating through the front leg assembly and the rear leg assembly to fulfill limiting; and a folding handle connected to the bolt through a folding steel wire to control a movement of the bolt . a rotating shaft adapted to be arranged on a seat body and used for rotatably connecting a front leg assembly to the seat body; a rear leg assembly supporting rod adapted to be used for connecting a rear leg assembly to the seat body; and a rear leg assembly rotating rod arranged on the front leg assembly and used for connecting the rear leg assembly to the front leg assembly, so that the rear leg assembly is driven to rotate reversely when the front leg assembly rotates around the rotating shaft; characterized in that the folding and unfolding control assembly comprises: a bolt adapted to be movably arranged on the seat body and capable of penetrating through the front leg assembly and the rear leg assembly to fulfill limiting; and a folding handle connected to the bolt through a folding steel wire to control a movement of the bolt . a bolt adapted to be movably arranged on the seat body and capable of penetrating through the front leg assembly and the rear leg assembly to fulfill limiting; and a folding handle connected to the bolt through a folding steel wire to control a movement of the bolt .
A mouthwash comprising chlorhexidine in a quantity of about 0.01% to 0.3%(w/w), preferably of about 0.09% to about 0.25% (w/w), and an anti-pigmentation system, said anti-pigmentation system comprising a metabisulfite salt of an alkali or an alkaline-earth metal, ascorbic acid or an alkali or an alkaline-earth metal salt thereof, hyaluronic acid or a salt thereof and polyvinylpirrolidone-vinylacetate, wherein polyvinylpirrolidone-vinyl acetate is comprised in an amount of about 0.02% to about 0.5% (w/total weight of the mouthwash), preferably in an amount of about 0.15% to about 0.2% and more preferably of about 0.09% to about 0.12% (w/total volume of the mouthwash) .
Method of application for applying a sound-absorbing material to an inner cavity of a pneumatic tyre using a strip of sound-absorbing material provided on one side with an adhesive layer covered with a protective lining ; the application method comprises the steps of: eliminating an excess end of the strip of sound-absorbing material such as to confer a required length to the same strip of sound-absorbing material ; and progressively separating the protective lining from the strip of sound-absorbing material , step-by-step, as the strip of sound-absorbing material is applied to the inner cavity of the pneumatic tyre ; the method of application is characterized in that it comprises the further steps of: implementing by means of the strip of sound-absorbing material a separation opening that starts from an opposite side of the protective lining and ends at the protective lining that remains intact and separates the excess end from the remaining part of the strip of sound-absorbing material ; and pulling the excess end in relation to the remaining part of the strip of sound-absorbing material such as to separate the protective lining from the strip of sound-absorbing material . eliminating an excess end of the strip of sound-absorbing material such as to confer a required length to the same strip of sound-absorbing material ; and progressively separating the protective lining from the strip of sound-absorbing material , step-by-step, as the strip of sound-absorbing material is applied to the inner cavity of the pneumatic tyre ; the method of application is characterized in that it comprises the further steps of: implementing by means of the strip of sound-absorbing material a separation opening that starts from an opposite side of the protective lining and ends at the protective lining that remains intact and separates the excess end from the remaining part of the strip of sound-absorbing material ; and pulling the excess end in relation to the remaining part of the strip of sound-absorbing material such as to separate the protective lining from the strip of sound-absorbing material . implementing by means of the strip of sound-absorbing material a separation opening that starts from an opposite side of the protective lining and ends at the protective lining that remains intact and separates the excess end from the remaining part of the strip of sound-absorbing material ; and pulling the excess end in relation to the remaining part of the strip of sound-absorbing material such as to separate the protective lining from the strip of sound-absorbing material .
An assembly of a roller shutter box comprising an outer wall defining an inner space and a mounting frame provided outside said roller shutter box and defining an undercut section, wherein a mounting mechanism is provided in said inner space, configured to fix the roller shutter box on the mounting frame , characterized in that said mounting mechanism comprises: • a clamp extending through an opening in said outer wall configured to engage with said undercut section of the mounting frame ; and • a lever coupled to said clamp by a hinge allowing operating the clamp (1 04f) between a clamping position and a non-clamping position, said lever being accessible from outside the roller shutter box. • a clamp extending through an opening in said outer wall configured to engage with said undercut section of the mounting frame ; and • a lever coupled to said clamp by a hinge allowing operating the clamp (1 04f) between a clamping position and a non-clamping position, said lever being accessible from outside the roller shutter box.
An oral irrigator comprising; a housing and an actuation assembly , the actuation assembly comprising; a bezel secured to or formed as part of the housing ; an actuator operably connected to the bezel and moveable relative thereto; and an augmentation fluid positioned between the bezel and the actuator ; wherein: the augmentation fluid defines a frictional relationship between the bezel and the actuator that provides a predefined resistance force between the actuator and the bezel as the actuator is rotated relative to the bezel; the bezel comprises a curved bezel interfacing surface ; the actuator comprises a curved actuator interfacing surface ; and a curvature of the curved bezel interfacing surface corresponds to a curvature of the curved actuator interfacing surface . the augmentation fluid defines a frictional relationship between the bezel and the actuator that provides a predefined resistance force between the actuator and the bezel as the actuator is rotated relative to the bezel; the bezel comprises a curved bezel interfacing surface ; the actuator comprises a curved actuator interfacing surface ; and a curvature of the curved bezel interfacing surface corresponds to a curvature of the curved actuator interfacing surface .
Water/hydrogen separator device for separating the gas from the liquid comprising - a container to contain the mixture of liquid and gas, - a duct through which a liquid/gas mixture can reach the container , - an outflow for the liquid from the container, - a gas outflow duct from the container, - measurement means for measuring the reaching of a level of liquid in the container; - valve means positioned on the outflow for the liquid; - control means cooperating with the measuring means so as to receive the measurement of the level of liquid and adapted to act consequentially on the valve means to maintain a predefined maximum level of liquid in the container. characterised in that the measurement means comprise - emitter and receiver means of electromagnetic radiations adapted for generating a beam of electromagnetic radiation, and - a floating element adapted for floating on a quantity of liquid which accumulates on the bottom of the container and for interrupting a beam of the electromagnetic radiations at a predefined level, and the control means comprise a processing unit receiving a signal from the emitter and receiver means. - a container to contain the mixture of liquid and gas, - a duct through which a liquid/gas mixture can reach the container , - an outflow for the liquid from the container, - a gas outflow duct from the container, - measurement means for measuring the reaching of a level of liquid in the container; - valve means positioned on the outflow for the liquid; - control means cooperating with the measuring means so as to receive the measurement of the level of liquid and adapted to act consequentially on the valve means to maintain a predefined maximum level of liquid in the container. characterised in that the measurement means comprise - emitter and receiver means of electromagnetic radiations adapted for generating a beam of electromagnetic radiation, and - a floating element adapted for floating on a quantity of liquid which accumulates on the bottom of the container and for interrupting a beam of the electromagnetic radiations at a predefined level, and the control means comprise a processing unit receiving a signal from the emitter and receiver means.
A tray comprising: an annular sidewall having upper and lower annular peripheral edges , an upper annular peripheral rim which is integral with the upper annular peripheral edge , and a base which comprises an annular peripheral edge which is integral with the lower annular peripheral edge of the sidewall , wherein the rim , the sidewall and the base are composed of a thermoplastic polymer and the sidewall and the base define a central concavity for packaging a product, wherein the base comprises a lattice structure of elongate foam ribs interconnected by foam junctions , wherein each foam rib has opposite ends , and each end is integrally connected to either the annular peripheral edge of the base or one of the foam junctions , characterised in that each foam rib and each foam junction comprise opposed upper and lower unfoamed solid skins of the thermoplastic polymer on opposite sides of a central cellular foam core of the thermoplastic polymer.
A computer-implemented method performed by a data processing apparatus, for guiding installation of an opening sensor , the opening sensor comprising a magnetometer sensor and a magnet the method comprising: transmitting an indication to an installer of the opening sensor to open and close an entry point on which the opening sensor is installed; receiving detected magnetic field strengths of a magnetic field created by the magnet of the opening sensor as detected by the magnetometer sensor of the opening sensor over a time period; determining that there has been no change in the strength of the magnetic field created by the magnet as detected by the magnetometer sensor based on the received detected magnetic field strengths over the time period and re-transmitting the indication to the installer of the opening sensor to open and close the entry point on which the opening sensor is installed; determining that there has been a change in the strength of the magnetic field created by the magnet as detected by the magnetometer sensor based on the received detected magnetic field strengths during the time period; receiving accelerometer data from an accelerometer disposed in the magnetometer sensor over the time period; determining from the accelerometer data whether or not the magnetometer sensor was moving during the time period and if based on the accelerometer data it is determined that the magnetometer was not moving providing positive feedback to the installer of the opening sensor, and if based on the accelerometer data it is determined that the magnetometer was moving providing negative feedback to the installer of the opening sensor. transmitting an indication to an installer of the opening sensor to open and close an entry point on which the opening sensor is installed; receiving detected magnetic field strengths of a magnetic field created by the magnet of the opening sensor as detected by the magnetometer sensor of the opening sensor over a time period; determining that there has been no change in the strength of the magnetic field created by the magnet as detected by the magnetometer sensor based on the received detected magnetic field strengths over the time period and re-transmitting the indication to the installer of the opening sensor to open and close the entry point on which the opening sensor is installed; determining that there has been a change in the strength of the magnetic field created by the magnet as detected by the magnetometer sensor based on the received detected magnetic field strengths during the time period; receiving accelerometer data from an accelerometer disposed in the magnetometer sensor over the time period; determining from the accelerometer data whether or not the magnetometer sensor was moving during the time period and if based on the accelerometer data it is determined that the magnetometer was not moving providing positive feedback to the installer of the opening sensor, and if based on the accelerometer data it is determined that the magnetometer was moving providing negative feedback to the installer of the opening sensor.
Use of a chemical mechanical polishing (CMP) composition (Q) for chemical mechanical polishing of a substrate (S) comprising (i) cobalt and/or (ii) a cobalt alloy and (iii) TiN and /or TaN, wherein the CMP composition (Q) comprises (A) Inorganic particles (B) at least one organic compound comprising an amino-group and an acid group (Y), wherein said compound comprises n amino groups and at least n+1 acidic protons, wherein n is a integer ≥ 1. (C) at least one oxidizer in an amount of from 0.2 to 2.5 wt.-% based on the total weight of the respective CMP composition, (D) an aqueous medium wherein the CMP composition (Q) has a pH of more than 6 and less than 9 (A) Inorganic particles (B) at least one organic compound comprising an amino-group and an acid group (Y), wherein said compound comprises n amino groups and at least n+1 acidic protons, wherein n is a integer ≥ 1. (C) at least one oxidizer in an amount of from 0.2 to 2.5 wt.-% based on the total weight of the respective CMP composition, (D) an aqueous medium
A computer program product comprising instructions which, when executed by a NodeB, cause the NodeB to carry out steps comprising: allocating pilot resources to a user equipment, UE, according to a preset agreement, a transmission mode of the UE, and a number of spatial transmission layers of the UE; wherein the pilot resources include multiple resource elements, REs, and a code word of code division multiplexing, CDM, orthogonal code words; notifying a pilot-resource information number corresponding to the pilot resources to the UE; wherein the pilot-resource information number identifies a combination of the number of transmission layers of the UE, pilot resource at each spatial transmission layer, and current pilot-resource use status of the communication system, and the current pilot-resource use status of the communication system includes a position of the pilot resource RE and an orthogonal cover code, OCC, length, and the OCC length is 2 or 4, wherein the OCC length equals 2 means the code word is orthogonal in a slot, the OCC length equals 4 means the code word is orthogonal in a sub-frame, wherein a 4x4 Walsh matrix is used for provision of the code word, wherein the matrix includes c1. c2, c3, and c4, wherein c1= , c2=[1,-1,1,-1], c3=[1,1,-1,-1], and c4=[1,-1,-1,1]. allocating pilot resources to a user equipment, UE, according to a preset agreement, a transmission mode of the UE, and a number of spatial transmission layers of the UE; wherein the pilot resources include multiple resource elements, REs, and a code word of code division multiplexing, CDM, orthogonal code words; notifying a pilot-resource information number corresponding to the pilot resources to the UE; wherein the pilot-resource information number identifies a combination of the number of transmission layers of the UE, pilot resource at each spatial transmission layer, and current pilot-resource use status of the communication system, and the current pilot-resource use status of the communication system includes a position of the pilot resource RE and an orthogonal cover code, OCC, length, and the OCC length is 2 or 4, wherein the OCC length equals 2 means the code word is orthogonal in a slot, the OCC length equals 4 means the code word is orthogonal in a sub-frame, wherein a 4x4 Walsh matrix is used for provision of the code word, wherein the matrix includes c1. c2, c3, and c4, wherein c1= , c2=[1,-1,1,-1], c3=[1,1,-1,-1], and c4=[1,-1,-1,1].
Method of attitude control of a spacecraft , the spacecraft defining a local frame composed of three local axes (X sat , Y sat , Z sat ) and comprising at least one orientable surface extending along one of the local axes (Y sat ), termed the generator axis, a motorization module able to receive piloting commands and to modify the orientation of the or of each orientable surface in the local frame (X sat , Y sat , Z sat ) as a function of the piloting commands received, a measurement module able to measure at least some physical parameters relating to the spacecraft , and an angular momentum accumulation system ; the method comprising the following steps, implemented for each current orientation of the or of each orientable surface : - maintain the angular momentum (H RW ) accumulated before the implementation of the method by the angular momentum accumulation system ; - estimate the angular speeds (ω X , ω Y , ω Z) of rotation of the spacecraft about the three local axes (X sat , Y sat , Z sat ) of the local frame; - estimate the direction of the luminous flux arising from the Sun (S) with respect to the or to each orientable surface ; - determine a setpoint attitude; - determine a following orientation of the or of each orientable surface in which the solar couple engendered by the interaction of the luminous flux with the orientable surface or surfaces , makes it possible to attain the setpoint attitude; - generate a piloting command intended for the motorization module to make the or each orientable surface pass into the following orientation; in which each following orientation of the or of each orientable surface is determined as a function of the current orientation of the or of each orientable surface , of the direction of the luminous flux arising from the Sun (S), of the angular speeds (ω X , ω Y , ω Z) measured and of the angular momentum (H RW ) accumulated. - maintain the angular momentum (H RW ) accumulated before the implementation of the method by the angular momentum accumulation system ; - estimate the angular speeds (ω X , ω Y , ω Z) of rotation of the spacecraft about the three local axes (X sat , Y sat , Z sat ) of the local frame; - estimate the direction of the luminous flux arising from the Sun (S) with respect to the or to each orientable surface ; - determine a setpoint attitude; - determine a following orientation of the or of each orientable surface in which the solar couple engendered by the interaction of the luminous flux with the orientable surface or surfaces , makes it possible to attain the setpoint attitude; - generate a piloting command intended for the motorization module to make the or each orientable surface pass into the following orientation;