mhurhangee/patent-ind-claim-en huggingface dataset:
A reel side yarn suction nozzle comprising: - an arm movable from at least one rest position to at least one working or suction position, the arm being fluidly connected to a suction source to create a suction airflow, - the arm terminating with a suction slit having a rectilinear configuration elongated along a transverse direction (T-T), the suction slit , with respect to a cross-section plane perpendicular to a first axis of rotation (R1) of the associable reel and to a second axis of rotation (R2) of the movable arm , has an upper lip and a lower lip , - characterized in that said suction slit is provided with a deflector and a comb , - wherein the deflector is oriented so as to induce a pinch of the air flow generated between the associated reel and the suction slit , accelerating the air current and thereby facilitating the gripping of the free end of the yarn on the reel side , - wherein said comb comprises a roughened surface . - an arm movable from at least one rest position to at least one working or suction position, the arm being fluidly connected to a suction source to create a suction airflow, - the arm terminating with a suction slit having a rectilinear configuration elongated along a transverse direction (T-T), the suction slit , with respect to a cross-section plane perpendicular to a first axis of rotation (R1) of the associable reel and to a second axis of rotation (R2) of the movable arm , has an upper lip and a lower lip , - characterized in that said suction slit is provided with a deflector and a comb , - wherein the deflector is oriented so as to induce a pinch of the air flow generated between the associated reel and the suction slit , accelerating the air current and thereby facilitating the gripping of the free end of the yarn on the reel side , - wherein said comb comprises a roughened surface .
Method of providing station information in a single FM tuner system, comprising: receiving radio data system, RDS, data / radio broadcast data system, RBDS, data by the single FM tuner system; extracting frequency information regarding receivable stations from the received RDS/RBDS data; and extracting additional information regarding the receivable stations from the program type, PTY, information field of the received RDS/RBDS data and/or from the program identification, PI, information field of the RDS/RBDS data; displaying a list of the receivable frequencies, wherein the list in particular includes one or more receivable frequencies; characterized by displaying the additional information regarding the receivable stations in correspondence with the respective receivable frequencies in the list; selecting a station based on the additional information by a user of the single FM tuner system; replacing the additional information with the program service name, PS name, of the selected station when the corresponding RDS/RBDS data has been received. receiving radio data system, RDS, data / radio broadcast data system, RBDS, data by the single FM tuner system; extracting frequency information regarding receivable stations from the received RDS/RBDS data; and extracting additional information regarding the receivable stations from the program type, PTY, information field of the received RDS/RBDS data and/or from the program identification, PI, information field of the RDS/RBDS data; displaying a list of the receivable frequencies, wherein the list in particular includes one or more receivable frequencies; characterized by displaying the additional information regarding the receivable stations in correspondence with the respective receivable frequencies in the list; selecting a station based on the additional information by a user of the single FM tuner system; replacing the additional information with the program service name, PS name, of the selected station when the corresponding RDS/RBDS data has been received.
A method of operating a device , the device including an electroactive polymer actuator comprising: - an electrode arrangement for receiving a control signal; and - an electroactive polymer structure for providing an actuation in response to the control signal, the actuation causing the electroactive polymer structure to be displaced from a rest state to an actuated state and then to return to its rest state upon relaxation; the method comprising: - generating the control signal to comprise: - a drive signal for causing the actuation, the drive signal having a first polarity; and - a reset signal with a second polarity opposite to the first polarity, the reset signal preceding and/or following the drive signal, and being for reducing or eliminating drift of the rest state over successive actuations; and - applying the control signal to the electrode arrangement; wherein the magnitude of the amplitude of the reset signal is equal to or less than the product of a level scaling factor and the magnitude of the amplitude of the drive signal, the level scaling factor being chosen from the group consisting of: 0.5, 0.2, 0.1, 0.05, 0.02 and 0.01. - an electrode arrangement for receiving a control signal; and - an electroactive polymer structure for providing an actuation in response to the control signal, the actuation causing the electroactive polymer structure to be displaced from a rest state to an actuated state and then to return to its rest state upon relaxation; - generating the control signal to comprise: - a drive signal for causing the actuation, the drive signal having a first polarity; and - a reset signal with a second polarity opposite to the first polarity, the reset signal preceding and/or following the drive signal, and being for reducing or eliminating drift of the rest state over successive actuations; and - a drive signal for causing the actuation, the drive signal having a first polarity; and - a reset signal with a second polarity opposite to the first polarity, the reset signal preceding and/or following the drive signal, and being for reducing or eliminating drift of the rest state over successive actuations; and - applying the control signal to the electrode arrangement;
A cosmetic composition comprising a hyperbranched copolymer of the monomers (i) dodecenyl succinic acid anhydride (ii) diisopropanol amine (iii) bis-dimethylaminopropyl amine having terminal groups of formula and having a molecular weight Mn of between 1200 and 4000 g/mol; and at least one liquid dispersion of an acrylic polymer which is a homopolymer or a copolymer of the monomers selected from the group consisting of (meth)acrylic acid, (meth)acrylic esters, (meth)acrylamide and amides of (meth) acrylic acid. a hyperbranched copolymer of the monomers (i) dodecenyl succinic acid anhydride (ii) diisopropanol amine (iii) bis-dimethylaminopropyl amine having terminal groups of formula and having a molecular weight Mn of between 1200 and 4000 g/mol; (i) dodecenyl succinic acid anhydride (ii) diisopropanol amine (iii) bis-dimethylaminopropyl amine having terminal groups of formula and having a molecular weight Mn of between 1200 and 4000 g/mol; and at least one liquid dispersion of an acrylic polymer which is a homopolymer or a copolymer of the monomers selected from the group consisting of (meth)acrylic acid, (meth)acrylic esters, (meth)acrylamide and amides of (meth) acrylic acid.
A cyclone separator arrangement , comprising - a preceding apparatus having an outlet , and - a cyclone separator having an inlet , the arrangement further comprising - a crossover duct connected to the outlet and the inlet for supplying gas flow comprising particles from the preceding apparatus to the cyclone separator , wherein - the crossover duct creates a flow channel from the outlet to the inlet , the horizontal cross-section of the preceding apparatus has a round shape having a horizontal inner diameter (D), and wherein - the width (d) is a dimension of the flow channel in a horizontal plane crossing the centre of gravity (CF) of a flow-through area of the flow channel at the outlet of the preceding apparatus, wherein - the inner diameter (D) is a width of the preceding apparatus in a horizontal plane crossing the centre of gravity (CP) of a flow-through area of the preceding apparatus and being parallel to the width (d) of the flow channel , and that - the flow channel is arranged asymmetrically in a horizontal cross-section of the preceding apparatus , characterized in that - the flow channel having a cross-section having a height (H) and a width (d), said width (d) relating to the inner diameter (D) such that 0.15 x D < d < 0.6 x D, in that - the crossover duct is arranged to the round preceding apparatus so that a distal wall of the crossover duct is tangentially directed in respect of the preceding apparatus , and in that - a relation of the height (H) of the crossover duct to the width (d) thereof is H/d < 3.75 at the outlet . - a preceding apparatus having an outlet , and - a cyclone separator having an inlet , the arrangement further comprising - a crossover duct connected to the outlet and the inlet for supplying gas flow comprising particles from the preceding apparatus to the cyclone separator , wherein - the crossover duct creates a flow channel from the outlet to the inlet , the horizontal cross-section of the preceding apparatus has a round shape having a horizontal inner diameter (D), and wherein - the width (d) is a dimension of the flow channel in a horizontal plane crossing the centre of gravity (CF) of a flow-through area of the flow channel at the outlet of the preceding apparatus, wherein - the inner diameter (D) is a width of the preceding apparatus in a horizontal plane crossing the centre of gravity (CP) of a flow-through area of the preceding apparatus and being parallel to the width (d) of the flow channel , and that - the flow channel is arranged asymmetrically in a horizontal cross-section of the preceding apparatus , characterized in that - the flow channel having a cross-section having a height (H) and a width (d), said width (d) relating to the inner diameter (D) such that 0.15 x D < d < 0.6 x D, in that - the crossover duct is arranged to the round preceding apparatus so that a distal wall of the crossover duct is tangentially directed in respect of the preceding apparatus , and in that - a relation of the height (H) of the crossover duct to the width (d) thereof is H/d < 3.75 at the outlet .
An electrochromic compound represented by a general formula (I): wherein: - Z is a pyridinediyl radical or a pyridiniumdiyl radical; - each Y is independently selected from N or ( + N-R 2 )(X - ) with R 2 a C 1 -C 18 alkyl; - each one of R 1 is independently selected from H, alkyl, alkoxy, alkylthio, haloalkyl, haloalkoxy, haloalkylthio, polyalkylenoxy, alkoxycarbonyl, aryl, or heteroaryl; - n is 1, 2, 3 or 4; - a is 4; - X- is a counterion; - Z is not simultaneously bound in position 4 of cycle A and in position 4 of cycle B. - Z is a pyridinediyl radical or a pyridiniumdiyl radical; - each Y is independently selected from N or ( + N-R 2 )(X - ) with R 2 a C 1 -C 18 alkyl; - each one of R 1 is independently selected from H, alkyl, alkoxy, alkylthio, haloalkyl, haloalkoxy, haloalkylthio, polyalkylenoxy, alkoxycarbonyl, aryl, or heteroaryl; - n is 1, 2, 3 or 4; - a is 4; - X- is a counterion; - Z is not simultaneously bound in position 4 of cycle A and in position 4 of cycle B.
Airbag module , comprising: - an airbag sack which is filled with a pressurized airbag gas during operation; - a gas generator for providing the pressurized airbag gas ; and - a gas feed between the gas generator and the airbag sack for feeding the provided pressurized airbag gas from the gas generator into the airbag sack ; a valve arrangement for releasing a predefined mass flow ( ṁ ) of the pressurized airbag gas from the gas generator being arranged in the gas feed , the valve arrangement comprising an electrically actuable pilot valve for controlling the predefined mass flow ( ṁ ) of the airbag gas and a hydraulic intensifier arrangement for increasing a lift action of the pilot valve , the hydraulic intensifier arrangement comprising a control space which is connected fluidically to the gas generator via a connecting bore and via a throttle bore arranged separately from the connecting bore , and which is connected fluidically to the airbag sack via an outflow bore , characterized in that a closing element for closing and releasing a valve seat in the connecting bore or in the outflow bore is arranged in the control space , the closing element being configured as a dividing element which divides the control space into a first control space region and into a second control space region which is separate from the first control space , an inflow bore to the pilot valve forming a fluidic connection of the control space to the pilot valve , and an outflow bore of the pilot valve forming a fluidic connection of the pilot valve to the airbag sack . - an airbag sack which is filled with a pressurized airbag gas during operation; - a gas generator for providing the pressurized airbag gas ; and - a gas feed between the gas generator and the airbag sack for feeding the provided pressurized airbag gas from the gas generator into the airbag sack ; a valve arrangement for releasing a predefined mass flow ( ṁ ) of the pressurized airbag gas from the gas generator being arranged in the gas feed , the valve arrangement comprising an electrically actuable pilot valve for controlling the predefined mass flow ( ṁ ) of the airbag gas and a hydraulic intensifier arrangement for increasing a lift action of the pilot valve , the hydraulic intensifier arrangement comprising a control space which is connected fluidically to the gas generator via a connecting bore and via a throttle bore arranged separately from the connecting bore , and which is connected fluidically to the airbag sack via an outflow bore , characterized in that a closing element for closing and releasing a valve seat in the connecting bore or in the outflow bore is arranged in the control space , the closing element being configured as a dividing element which divides the control space into a first control space region and into a second control space region which is separate from the first control space , an inflow bore to the pilot valve forming a fluidic connection of the control space to the pilot valve , and an outflow bore of the pilot valve forming a fluidic connection of the pilot valve to the airbag sack .
A device for at least partially automatically actuating a door leaf , with at least one drive for actuating a door leaf and with a casing element for guiding the door leaf , wherein the drive includes at least one drive axis of rotation (3.1), wherein lever kinematics with at least one lever element (5.1) is supported rotatably mobile about the drive axis of rotation (3.1) at least at a first bearing (6.1), wherein the drive axis of rotation (3.1) is disposed at the drive and drivable by the drive , and wherein the lever kinematics is disposed rotatably mobile about a casing axis of rotation (4.1) at least at a second bearing (6.2), wherein the casing axis of rotation (4.1) is disposed at the casing element and guidable by the casing element , whereby the door leaf is guidable to an open position (I) and/or a close position (II), and wherein, on the door leaf , the lever kinematics includes at least one connecting means for transferring electric energy and/or data between at least one energy source (8.1) and an energy recipient (8.2), wherein the connecting means includes at least one twisting section for rotation compensation at the drive axis of rotation (3.1) and/or the casing axis of rotation (4.1), which section is formed twisted, characterized in that the twisting section is pre-twisted by a twisting angle (β), wherein the twisting section has a first end (9.3) and a second end (9.4) opposite the first end (9.3), which, in the close position (II) of the door leaf , have a twisting angle (β) to each other different from 0°, preferably between +-10° and +-110°.
A tunnel magnetoresistive effect element comprising: a reference layer ; a tunnel barrier layer ; a perpendicular magnetization inducing layer ; and a magnetization free layer stacked along a stack direction between the tunnel barrier layer and the perpendicular magnetization inducing layer , wherein the perpendicular magnetization inducing layer imparts magnetic anisotropy along the stack direction to the magnetization free layer , wherein the magnetization free layer has a width that is smaller than any of a width of the tunnel barrier layer or a width of the perpendicular magnetization inducing layer , characterized in that the tunnel barrier layer and the perpendicular magnetization inducing layer are formed of an oxide material that has a spinel structure represented by general formula AB 2 O 4 , wherein A is at least one kind of element selected from a group consisting of Mg and Zn, and B is at least one kind of element selected from a group consisting of Al, Ga, and In. a reference layer ; a tunnel barrier layer ; a perpendicular magnetization inducing layer ; and a magnetization free layer stacked along a stack direction between the tunnel barrier layer and the perpendicular magnetization inducing layer , wherein the perpendicular magnetization inducing layer imparts magnetic anisotropy along the stack direction to the magnetization free layer , wherein the magnetization free layer has a width that is smaller than any of a width of the tunnel barrier layer or a width of the perpendicular magnetization inducing layer , characterized in that the tunnel barrier layer and the perpendicular magnetization inducing layer are formed of an oxide material that has a spinel structure represented by general formula AB 2 O 4 , wherein A is at least one kind of element selected from a group consisting of Mg and Zn, and B is at least one kind of element selected from a group consisting of Al, Ga, and In.
A bending type heat exchanger , comprising: a first header pipe and a second header pipe spaced apart from each other and having bending sections in one-to-one correspondence; a flat pipe having two ends connected with the first header pipe and the second header pipe respectively; the heat exchanger being characterized in that a fin is disposed between adjacent flat pipes and having a width smaller than or equal to a width of the flat pipe in a transverse direction, wherein the fin extends generally in a wavy shape along a longitudinal direction and comprises a main section and a connecting section , the main section and the connecting section are connected in series so as to make the connecting section form a wave crest and a wave trough, and the fin is divided into a first end portion , a second end portion , and a central portion between the first end portion and the second end portion along the transverse direction; wherein the connecting section of the central portion , forming the wave crest and the wave trough, is connected with the flat pipe , and a gap exists between the connecting section , forming the wave crest and/or the wave trough, of at least one of the first end portion and the second end portion and the flat pipe within the bending section. a first header pipe and a second header pipe spaced apart from each other and having bending sections in one-to-one correspondence; a flat pipe having two ends connected with the first header pipe and the second header pipe respectively; the heat exchanger being characterized in that a fin is disposed between adjacent flat pipes and having a width smaller than or equal to a width of the flat pipe in a transverse direction, wherein the fin extends generally in a wavy shape along a longitudinal direction and comprises a main section and a connecting section , the main section and the connecting section are connected in series so as to make the connecting section form a wave crest and a wave trough, and the fin is divided into a first end portion , a second end portion , and a central portion between the first end portion and the second end portion along the transverse direction; wherein the connecting section of the central portion , forming the wave crest and the wave trough, is connected with the flat pipe , and a gap exists between the connecting section , forming the wave crest and/or the wave trough, of at least one of the first end portion and the second end portion and the flat pipe within the bending section.
A release sheet-equipped insulating heat dissipation sheet comprising: an insulating heat dissipation sheet comprising an inorganic filler and a thermosetting resin; and a release sheet layered on the insulating heat dissipation sheet, the insulating heat dissipation sheet comprising one adhesive surface configured to be adhered to a first adherend and another adhesive surface configured to be adhered to a second adherend, the release sheet comprising a transfer sheet having a front surface in contact with the one adhesive surface, a positioning sheet adhered to a back surface of the transfer sheet, and an adhesive used for adhesion between the transfer sheet and the positioning sheet, the insulating heat dissipation sheet and the transfer sheet respectively having outer edges matching in shape with each other, the transfer sheet having a surface roughness transferred to the insulating heat dissipation sheet, the positioning sheet having an area larger than either of the insulating heat dissipation sheet and the transfer sheet, and being configured for use in positioning the insulating heat dissipation sheet relative to the second adherend when the insulating heat dissipation sheet is adhered to the second adherend. an insulating heat dissipation sheet comprising an inorganic filler and a thermosetting resin; and a release sheet layered on the insulating heat dissipation sheet, the insulating heat dissipation sheet comprising one adhesive surface configured to be adhered to a first adherend and another adhesive surface configured to be adhered to a second adherend, the release sheet comprising a transfer sheet having a front surface in contact with the one adhesive surface, a positioning sheet adhered to a back surface of the transfer sheet, and an adhesive used for adhesion between the transfer sheet and the positioning sheet, the insulating heat dissipation sheet and the transfer sheet respectively having outer edges matching in shape with each other, the transfer sheet having a surface roughness transferred to the insulating heat dissipation sheet, the positioning sheet having an area larger than either of the insulating heat dissipation sheet and the transfer sheet, and being configured for use in positioning the insulating heat dissipation sheet relative to the second adherend when the insulating heat dissipation sheet is adhered to the second adherend.
Impact detection sensor for a tube rail cart, said impact detection sensor being composed of a shaft and a conical valve with a valve shaft which in resting condition coaxially extends through the shaft with a lateral play in the shaft , whereby at one end the shaft is provided with a conical valve seat for the conical valve and whereby the impact detection sensor is provided with a return spring which is configured to pull or push the conical valve in an axial direction against the valve seat and whereby the valve shaft or the shaft at the end of the impact detection sensor with the conical valve is provided with an impact sensitive element which in case of a lateral impact is configured to cause the conical valve to move laterally relative to the valve seat and consequently also to cause the valve shaft to move axially relative to the shaft against the force of the return spring , whereby the valve shaft is provided with a collar and the shaft is provided with a sensor for detecting the position of the collar relative to the sensor .