mhurhangee/patent-ind-claim-en huggingface dataset:
A lifting device for a roof window, in particular for installation in an inclined roof surface, comprising a lifting arm , a spring assembly with a first coupling member, and a sledge system configured to be slidably connected to one part of the roof window and including a sledge and a second coupling member configured to cooperate with the first coupling member, in which a first end of the lifting arm is rotatably connected with the sledge system and a second end is configured to be connected to another part of the roof window, wherein the first end of the lifting arm is connected to the sledge system via an axle fixedly connected to said first end , and said axle comprises an at least partly essentially circular outer circumference, and two end faces, wherein said axle contacts the sledge system through at least one receiving hole in at least one sledge wall portion of the sledge , wherein the sledge system furthermore includes a runner guided in the one part of the roof window, characterised in that said axle further contacts at least one cut-out in wall portions of the runner . a lifting arm , a spring assembly with a first coupling member, and a sledge system configured to be slidably connected to one part of the roof window and including a sledge and a second coupling member configured to cooperate with the first coupling member, in which a first end of the lifting arm is rotatably connected with the sledge system and a second end is configured to be connected to another part of the roof window, wherein the first end of the lifting arm is connected to the sledge system via an axle fixedly connected to said first end , and said axle comprises an at least partly essentially circular outer circumference, and two end faces, wherein said axle contacts the sledge system through at least one receiving hole in at least one sledge wall portion of the sledge , wherein the sledge system furthermore includes a runner guided in the one part of the roof window, characterised in that said axle further contacts at least one cut-out in wall portions of the runner .
A brushless sieve cleaner (1; 1'; 1"; 1′′′) for cleaning a sieving surface of a sieve box comprising the sieving surface and a sieve floor , comprising - a wobble foot (5; 5") extending along a main axis (A; A'; A") of the brushless sieve cleaner (1; 1'; 1''; 1′′′) and configured such that the wobble foot be placed on the sieve floor and the brushless sieve cleaner (1; 1'; 1"; 1′′′) can be tilted about the wobble foot (5; 5"); - at least one cleaning element (6; 6'; 6"; 6′′′) comprising a brushless cleaning region (7; 7'; 7"; 7′′′) containing no brushes, the or each cleaning region (7; 7'; 7"; 7′′′) comprising a plurality of cleaning surfaces (8; 8'; 8"; 8′′′) for cleaning the sieving surface ; characterized in that each one of said plurality of cleaning surfaces (8; 8'; 8"; 8′′′) is respectively adapted for at least linear contact with said sieving surface , wherein upon rotation of said brushless sieve cleaner (1; 1'; 1"; 1′′′) about the main axis (A; A'; A"; A′′′), each individual one of the plurality of cleaning surfaces (8; 8'; 8"; 8′′′) sweeps over a planar region of the sieving surface , and in that each individual one of the plurality of cleaning surfaces (8; 8'; 8"; 8′′′) is separated from each adjacent cleaning surface (8; 8'; 8"; 8′′′) by a slot (9; 9'; 9"; 9′′′) formed in the cleaning area (7; 7'; 7"; 7′′′), and that each slot (9; 9′′′) extends in a slot direction (S; S′′′) which is at an angle (α′′′) in the range of 30° to 60° to a radial direction (R; R′′′) with respect to the main axis (A; A′′′). - a wobble foot (5; 5") extending along a main axis (A; A'; A") of the brushless sieve cleaner (1; 1'; 1''; 1′′′) and configured such that the wobble foot be placed on the sieve floor and the brushless sieve cleaner (1; 1'; 1"; 1′′′) can be tilted about the wobble foot (5; 5"); - at least one cleaning element (6; 6'; 6"; 6′′′) comprising a brushless cleaning region (7; 7'; 7"; 7′′′) containing no brushes, the or each cleaning region (7; 7'; 7"; 7′′′) comprising a plurality of cleaning surfaces (8; 8'; 8"; 8′′′) for cleaning the sieving surface ; characterized in that each one of said plurality of cleaning surfaces (8; 8'; 8"; 8′′′) is respectively adapted for at least linear contact with said sieving surface , wherein upon rotation of said brushless sieve cleaner (1; 1'; 1"; 1′′′) about the main axis (A; A'; A"; A′′′), each individual one of the plurality of cleaning surfaces (8; 8'; 8"; 8′′′) sweeps over a planar region of the sieving surface , and in that each individual one of the plurality of cleaning surfaces (8; 8'; 8"; 8′′′) is separated from each adjacent cleaning surface (8; 8'; 8"; 8′′′) by a slot (9; 9'; 9"; 9′′′) formed in the cleaning area (7; 7'; 7"; 7′′′), and that each slot (9; 9′′′) extends in a slot direction (S; S′′′) which is at an angle (α′′′) in the range of 30° to 60° to a radial direction (R; R′′′) with respect to the main axis (A; A′′′).
Seat for a motor vehicle , having: - a backrest , - a headrest having at least one rod for mounting it on the backrest , - a supporting structure that delimits an accommodating recess for the headrest , and - a seat pan mounted so as to be able to move on said supporting structure between a use position and an offset position, characterized in that the seat pan has a blocking accessory (210; 220; 230) that, when the headrest is installed in the accommodating recess , is designed to come to abut against the rod of the headrest owing to the movement of the seat pan from its offset position towards its use position. - a backrest , - a headrest having at least one rod for mounting it on the backrest , - a supporting structure that delimits an accommodating recess for the headrest , and - a seat pan mounted so as to be able to move on said supporting structure between a use position and an offset position,
A multi-core fiber comprising: n number of even numbered cores; and a cladding surrounding the cores, wherein in the even numbered cores, a half of the even numbered cores are first cores which are disposed in a manner that centers are located on apexes (C) of a regular polygon (RP) whose center is at an origin point (O) in the cladding , in the even numbered cores, second cores other than said first cores are disposed in a manner that centers are located on perpendicular bisectors (LV) of edges of the regular polygon (RP) on an inner side of the regular polygon (RP), characterized in that an expression below is satisfied where a size of an acute angle formed of a line connecting a center of a first core to a center of a second core adjacent to said first core and a line connecting the center of said first core to the origin point (O) is defined as φ, wherein the combination(n, φ) of n and φ is any one of (10, 28.5°), (10, 30.0°), (10, 35.0°), (12, 26.0°), (12, 35.0°), (14, 25.0°), (14, 30.0°), (14, 35.0°), (16, 25.0°), (16, 30.0°), (16, 35.0°), (18, 25.0°), (18, 30.0°), and (18, 35.0°) and wherein tan − 1 tan 360 ° n ⋅ sin 360 ° 2 n tan 360 ° n − sin 360 ° 2 n < φ < 90 ° − 540 ° n n number of even numbered cores; and a cladding surrounding the cores, wherein in the even numbered cores, a half of the even numbered cores are first cores which are disposed in a manner that centers are located on apexes (C) of a regular polygon (RP) whose center is at an origin point (O) in the cladding , in the even numbered cores, second cores other than said first cores are disposed in a manner that centers are located on perpendicular bisectors (LV) of edges of the regular polygon (RP) on an inner side of the regular polygon (RP), characterized in that an expression below is satisfied where a size of an acute angle formed of a line connecting a center of a first core to a center of a second core adjacent to said first core and a line connecting the center of said first core to the origin point (O) is defined as φ, wherein the combination(n, φ) of n and φ is any one of (10, 28.5°), (10, 30.0°), (10, 35.0°), (12, 26.0°), (12, 35.0°), (14, 25.0°), (14, 30.0°), (14, 35.0°), (16, 25.0°), (16, 30.0°), (16, 35.0°), (18, 25.0°), (18, 30.0°), and (18, 35.0°) and wherein tan − 1 tan 360 ° n ⋅ sin 360 ° 2 n tan 360 ° n − sin 360 ° 2 n < φ < 90 ° − 540 ° n
A method for operating a wind turbine comprising a speed-variable drive system comprising an electrical machine and a pulse-width modulation-controlled converter , wherein the speed-variable drive system is connected to an electrical grid , characterized in that in the event of a transient grid fault a frequency of the pulse-width modulation is determined in response to a current in at least one of an electrical circuit connecting the electrical machine to the converter and an electrical circuit connecting the converter to the grid .
An apparatus for treating mammalian meibomian glands having a meibomian gland channel and a meibomian gland orifice at a top of the meibomian gland channel, the apparatus comprising a device capable of coupling to the eyelid and applying thermal energy from a regulated heat source to the eyelid a temperature of between about 42°C and about 46°C, so that the eyelid reaches a temperature adequate to soften an obstruction within the meibomian glands, the device comprising a coupling surface, to be positioned behind the eyelid and a motion transmitting surface arranged to grip the eyelid there between, the apparatus further comprising means for applying a regulated force to the motion transmitting surface to express the obstruction from the meibomian gland.
Machine for the working of prismatic profiles (P), the machine being arranged to carry out in sequence working operations such as boring, tapping, drilling, flaring, spot-facing or rolling operations, with a constant or variable spacing, along at least one longitudinal generating line of the profile (P), and comprising: a stationary base ; two or more working heads for carrying out on the profile (P) the aforesaid working operations along a horizontal working axis extending perpendicular to a longitudinal axis of the profile (P); a workpiece clamping unit for clamping the profile (P) while the working heads are carrying out working operations on said profile (P); and a workpiece handling unit comprising two or more gripping devices which are movable in a controlled manner in the direction of the longitudinal axis of the profile (P) to position the profile (P) longitudinally in a given position relative to the clamping unit , each gripping device comprising a support body and a pair of jaws which are movable transversely towards or away from each other to grasp or release the profile (P), respectively; characterized in that each gripping device is configured so as to have at least one degree of freedom (DOF 1 , DOF 2 , DOF 3 ) with controlled compliance. a stationary base ; two or more working heads for carrying out on the profile (P) the aforesaid working operations along a horizontal working axis extending perpendicular to a longitudinal axis of the profile (P); a workpiece clamping unit for clamping the profile (P) while the working heads are carrying out working operations on said profile (P); and a workpiece handling unit comprising two or more gripping devices which are movable in a controlled manner in the direction of the longitudinal axis of the profile (P) to position the profile (P) longitudinally in a given position relative to the clamping unit , each gripping device comprising a support body and a pair of jaws which are movable transversely towards or away from each other to grasp or release the profile (P), respectively;
A method of transmitting uplink control information on a physical uplink shared channel, PUSCH, in a wireless communication system, the method performed by a terminal and comprising: determining a number of coded symbols for the uplink control information based on a beta offset; and mapping the uplink control information to an uplink resource based on the determined number of coded symbols, characterized in that the beta offset is set to one of configured values based on a payload size range to which a payload size of the uplink control information belongs. determining a number of coded symbols for the uplink control information based on a beta offset; and mapping the uplink control information to an uplink resource based on the determined number of coded symbols, characterized in that the beta offset is set to one of configured values based on a payload size range to which a payload size of the uplink control information belongs.
An apparatus configured to photoacoustically image and measure a structure at the human eye fundus comprising an emitter element for emitting electro-magnetic radiation, wherein the emitter element comprises one or more light sources for emitting electro-magnetic radiation, in particular as beams of different wavelengths, and a beam combiner for combining beams of different wavelengths into one illumination beam , a transition element configured to guide the illumination beam into the eye , a detection element for detecting an acoustic wave generated within the eye and converting the acoustic wave into a digital wave signal, an analysis element for processing the digital wave signal into an image or measurement or both, and a display element for displaying a representation of the image and / or the measurement characterized in that the apparatus additionally comprises a coupling member which is a tubular structure made of an acoustically conducting material which is adapted to touch the upper and/or lower eye lids of a patient's eye while the eye is open, wherein the coupling member is configured and arranged such that the illuminating beam passes through the center of the tubular structure into the eye and to acoustically couple the eye to the detection element such that the acoustic wave generated within the eye can be guided onto the detection element . an emitter element for emitting electro-magnetic radiation, wherein the emitter element comprises one or more light sources for emitting electro-magnetic radiation, in particular as beams of different wavelengths, and a beam combiner for combining beams of different wavelengths into one illumination beam , a transition element configured to guide the illumination beam into the eye , a detection element for detecting an acoustic wave generated within the eye and converting the acoustic wave into a digital wave signal, an analysis element for processing the digital wave signal into an image or measurement or both, and a display element for displaying a representation of the image and / or the measurement characterized in that the apparatus additionally comprises a coupling member which is a tubular structure made of an acoustically conducting material which is adapted to touch the upper and/or lower eye lids of a patient's eye while the eye is open, wherein the coupling member is configured and arranged such that the illuminating beam passes through the center of the tubular structure into the eye and to acoustically couple the eye to the detection element such that the acoustic wave generated within the eye can be guided onto the detection element .
End piece for guiding a needle intended to be inserted in a sheath occupied by at least one installed cable , the end piece comprising: • a free first end referred to as the head , of a shape suited to slipping in between the internal wall of the sheath and the at least one installed cable, • a shank connecting the first end to a second end of the end piece, the end piece being characterized in that the shank has a flexibility that increases towards the head, the second end is fixed to the needle, and the head has the shape of a bent-over disc of which the perimeter, when viewed from above, can be inscribed inside a circle or an oval. • a free first end referred to as the head , of a shape suited to slipping in between the internal wall of the sheath and the at least one installed cable, • a shank connecting the first end to a second end of the end piece,
A surgical training device , comprising: a device base ; a top cover spaced apart from the device base to define an internal cavity between the top cover and the device base ; at least one aperture or a penetrable tissue simulation region for accessing the internal cavity ; and a model removably disposed inside the internal cavity , wherein the model comprises a model base having an outer surface and characterized by a plurality of interchangeable eyelets arranged to permit a user to select different types of interchangeable eyelets and attach them to the model base of the model , as desired, in order to provide one or more custom pathways for practicing the passing of at least one needle and suture through one or more of the plurality of interchangeable eyelets associated with at least one of the custom pathways. a device base ; a top cover spaced apart from the device base to define an internal cavity between the top cover and the device base ; at least one aperture or a penetrable tissue simulation region for accessing the internal cavity ; and a model removably disposed inside the internal cavity , wherein the model comprises a model base having an outer surface and characterized by a plurality of interchangeable eyelets arranged to permit a user to select different types of interchangeable eyelets and attach them to the model base of the model , as desired, in order to provide one or more custom pathways for practicing the passing of at least one needle and suture through one or more of the plurality of interchangeable eyelets associated with at least one of the custom pathways.
A water-dispersible composition comprising at least one hydrophilic, water-insoluble solid pigment and at least 5 wt% of at least one starch octenyl succinate derivative as a hydrocolloid, wherein the hydrophilic, water-insoluble solid pigment is selected from the group consisting of metal chelates of carminic acid, curcumin, and chlorophyllin.
A system comprising: a neurostimulator (10; 100; 170); control circuitry configured to control stimulation circuitry to provide electrical stimulation to neural tissue via one or more electrodes that are connected to the neurostimulator (10; 100; 170) and implantable within a patient's spinal canal; measurement circuitry configured to measure a spinal signal at one or more of the electrodes , wherein the spinal signal comprises a neural response to the electrical stimulation; and processing circuitry configured to process the spinal signal to extract a cardiac signal that comprises one or more features that are representative of the patient's cardiac activity. a neurostimulator (10; 100; 170); control circuitry configured to control stimulation circuitry to provide electrical stimulation to neural tissue via one or more electrodes that are connected to the neurostimulator (10; 100; 170) and implantable within a patient's spinal canal; measurement circuitry configured to measure a spinal signal at one or more of the electrodes , wherein the spinal signal comprises a neural response to the electrical stimulation; and processing circuitry configured to process the spinal signal to extract a cardiac signal that comprises one or more features that are representative of the patient's cardiac activity.
A fiber-reinforced resin composition comprising chemically modified cellulose nanofibers (A) and a thermoplastic resin (B), wherein the chemically modified cellulose nanofibers and the thermoplastic resin satisfy the following conditions: (a) the ratio R of the solubility parameter (SP cnf ) of the chemically modified cellulose nanofibers (A) to the solubility parameter (SP pol ) of the thermoplastic resin (B) (SP cnf /SP pol ) is in the range of 0.87 to 1.88, wherein the solubility parameter (SP cnf ) of the chemically modified cellulose nanofibers (A) is calculated according to the Fedors method; and (b) the chemically modified cellulose nanofibers (A) have a crystallinity of 42.7% or more. (a) the ratio R of the solubility parameter (SP cnf ) of the chemically modified cellulose nanofibers (A) to the solubility parameter (SP pol ) of the thermoplastic resin (B) (SP cnf /SP pol ) is in the range of 0.87 to 1.88, wherein the solubility parameter (SP cnf ) of the chemically modified cellulose nanofibers (A) is calculated according to the Fedors method; and (b) the chemically modified cellulose nanofibers (A) have a crystallinity of 42.7% or more.
A wire processing system , comprising: a tray configured to sequentially receive one or more first wires of a first wire group and one or more second wires of a second wire group from a wire feed system of a wire processing machine , wherein the tray includes a plurality of counter-opposing ramps arranged in series and oriented in alternating opposing angled relation toward one another for biasing one or more wires into alignment with one another, the angle orientation of each ramp configured such that, in use, the portion of the one or more wires supported on each ramp are caused to slide downward under the force of gravity toward a lower portion of the ramp ; and a separator device associated with the tray and configured to promote physical separation of the first wire group from the second wire group and thereby reduce wire entanglement, wherein the separator device comprises at least one separator post extending upwardly from a tray surface. a tray configured to sequentially receive one or more first wires of a first wire group and one or more second wires of a second wire group from a wire feed system of a wire processing machine , wherein the tray includes a plurality of counter-opposing ramps arranged in series and oriented in alternating opposing angled relation toward one another for biasing one or more wires into alignment with one another, the angle orientation of each ramp configured such that, in use, the portion of the one or more wires supported on each ramp are caused to slide downward under the force of gravity toward a lower portion of the ramp ; and a separator device associated with the tray and configured to promote physical separation of the first wire group from the second wire group and thereby reduce wire entanglement, wherein the separator device comprises at least one separator post extending upwardly from a tray surface.
An ultrasound system comprising: a microconvex-linear ultrasound probe comprising an array of microconvex ultrasound elements and linear ultrasound elements ; a scan converter , coupled to receive echo signals from the ultrasound probe and render ultrasound images in a desired image format, wherein the echo signals form beams normal to active aperture surfaces along the entire array of microconvex elements and linear elements such that a continuous image field is scanned along the entire array of microconvex elements and linear elements; an orientation processor , coupled to at least one of the ultrasound probe or the scan converter to produce an image orientation signal which is coupled to the scan converter; and an ultrasound image display coupled to display images produced by the scan converter in a desired image orientation. a microconvex-linear ultrasound probe comprising an array of microconvex ultrasound elements and linear ultrasound elements ; a scan converter , coupled to receive echo signals from the ultrasound probe and render ultrasound images in a desired image format, wherein the echo signals form beams normal to active aperture surfaces along the entire array of microconvex elements and linear elements such that a continuous image field is scanned along the entire array of microconvex elements and linear elements; an orientation processor , coupled to at least one of the ultrasound probe or the scan converter to produce an image orientation signal which is coupled to the scan converter; and an ultrasound image display coupled to display images produced by the scan converter in a desired image orientation.