mhurhangee/patent-ind-claim-en huggingface dataset:
A labeling apparatus for presenting an application status of a medical device , the medical device having a first, unused state and a second, used state, the apparatus comprising: a label having an electrochromic element, the label being at least partially disposed on an exterior surface of the medical device and being configured to display a predetermined feature in response to an electric current; a power source disposed in or on the medical device ; and a switch configured to selectively connect or disconnect the label and the power source to one another for controlling the application of the electric current to the electrochromic element in response to actuation of the medical device from the first state to the second state. a label having an electrochromic element, the label being at least partially disposed on an exterior surface of the medical device and being configured to display a predetermined feature in response to an electric current; a power source disposed in or on the medical device ; and a switch configured to selectively connect or disconnect the label and the power source to one another for controlling the application of the electric current to the electrochromic element in response to actuation of the medical device from the first state to the second state.
A method for converting a DC (direct current) input voltage from a DC source into a 3-phase AC (alternating current) output voltage having an AC output waveform, an AC output frequency and an AC output cycle, comprising converting the DC input voltage to a DC output voltage with a specific DC output waveform, and combining with opposite polarities similar, but time shifted, DC output voltage waveforms, such as to provide the AC output voltage with respect to a reference voltage, wherein the DC input voltage is converted into three DC output voltages (DC R , DC S , DC T ), one for each phase (R, S, T) of the 3-phase output voltage, having identical, but time shifted waveforms, each DC output voltage is supplied to a corresponding inductance to provide the AC output voltage, and the waveforms being such, that when subtracting any two of said DC output voltages from each other a sinusoidal waveform with the AC output frequency is obtained, characterized in that , each DC output voltage (DC R , DC S , DC T ) is zero during a portion of 120° of the AC output cycle and during a remaining portion of 240° of the AC output cycle the waveform of each DC output voltage conforms a concatenation of a first section covering 0°-120° of a sinusoidal waveform with the AC output frequency and a second section covering 60°-180° of such sinusoidal waveform.
Vehicle seat comprising a vehicle seat top part , a vehicle seat bottom part and a guide device for guiding the vehicle seat top part with respect to the vehicle seat bottom part when the vehicle seat top part is deflected relative to the vehicle seat bottom part , wherein the guide device comprises: - a first assembly having a first lever element , a second lever element and a lever element connector , the first lever element and the second lever element being arranged so as to extend forwards in a longitudinal direction (L); - a second assembly having a third lever element , a fourth lever element and the lever element connector , the third lever element and the fourth lever element being arranged so as to extend backwards in a longitudinal direction (L); characterized in that the guide device further comprises: - a stabilization device having a fifth lever element , a sixth lever element and a seventh lever element , which are pivotally connected by means of a shared pivot axis ; wherein the fifth lever element is pivotally connected to the vehicle seat top part , the sixth lever element being pivotally connected to the vehicle seat bottom part and the seventh lever element being pivotally connected to the lever element connector . - a first assembly having a first lever element , a second lever element and a lever element connector , the first lever element and the second lever element being arranged so as to extend forwards in a longitudinal direction (L); - a second assembly having a third lever element , a fourth lever element and the lever element connector , the third lever element and the fourth lever element being arranged so as to extend backwards in a longitudinal direction (L); - a stabilization device having a fifth lever element , a sixth lever element and a seventh lever element , which are pivotally connected by means of a shared pivot axis ;
A compound of the general formula (IV): and an optical isomer thereof, or a pharmaceutically acceptable salt or a solvate thereof, wherein: R 2 is selected from unsubstituted or substituted aryl, unsubstituted or substituted heterocyclic aryl, unsubstituted or substituted cycloalkyl, unsubstituted or substituted saturated heterocyclic alkyl, unsubstituted or substituted unsaturated heterocyclic alkyl, optionally fused aryl and heterocyclic aryl; L is selected from CH and N; R 4 , R 5 are each independently selected from halogen and C 1 -C 3 alkyl; X is selected from the group consisting of O, S, NH and NCH 3 ; Z is selected from -C(R g )-, R g is selected from the group consisting of H, halogen and C 1 -C 3 alkyl. R 2 is selected from unsubstituted or substituted aryl, unsubstituted or substituted heterocyclic aryl, unsubstituted or substituted cycloalkyl, unsubstituted or substituted saturated heterocyclic alkyl, unsubstituted or substituted unsaturated heterocyclic alkyl, optionally fused aryl and heterocyclic aryl; L is selected from CH and N; R 4 , R 5 are each independently selected from halogen and C 1 -C 3 alkyl; X is selected from the group consisting of O, S, NH and NCH 3 ; Z is selected from -C(R g )-, R g is selected from the group consisting of H, halogen and C 1 -C 3 alkyl.
An electrical conductor, comprising: a strength member comprising a strand or a plurality of strands of steel or fiber-reinforced longitudinally extending composite materials under tensile strain of at least 0.05%; and an electrically conductive encapsulating layer portion comprising of at least a single layer of cladding conductive media, wherein the electrically conductive encapsulating layer is in immediate contact with the strength member; wherein the electrically conductive encapsulating layer portion has a thickness of a minimum of 0.5 millimeters and is substantially free of tension, for electrical conduction and protection of the strength member from damage or material degradation, and wherein the electrically conductive encapsulating layer portion and the strength member are bonded either mechanically or chemically to ensure substantial maintenance of residual stress and strain in respective constituents. a strength member comprising a strand or a plurality of strands of steel or fiber-reinforced longitudinally extending composite materials under tensile strain of at least 0.05%; and an electrically conductive encapsulating layer portion comprising of at least a single layer of cladding conductive media, wherein the electrically conductive encapsulating layer is in immediate contact with the strength member; wherein the electrically conductive encapsulating layer portion has a thickness of a minimum of 0.5 millimeters and is substantially free of tension, for electrical conduction and protection of the strength member from damage or material degradation, and wherein the electrically conductive encapsulating layer portion and the strength member are bonded either mechanically or chemically to ensure substantial maintenance of residual stress and strain in respective constituents.
Coating system for producing a highly scratch-resistant layered composite comprising a primer composition and a surface composition, characterized in that the primer composition comprises a1) polyalkyl methacrylate, a2) polysiloxane, and a3) organic solvent, and in that the surface composition comprises b1) colloidal silica, b2) methyltrimethoxysilane and/or methyltriethoxysilane, b3) methyltriacetoxysilane, and b4) organic solvent, preferably n-butanol and/or isopropanol. a1) polyalkyl methacrylate, a2) polysiloxane, and a3) organic solvent, b1) colloidal silica, b2) methyltrimethoxysilane and/or methyltriethoxysilane, b3) methyltriacetoxysilane, and b4) organic solvent, preferably n-butanol and/or isopropanol.
Motor vehicle openable section, particularly a side door for a motor vehicle, comprising a structural support cabinet , at least one interchangeable external panel and reversible attachment elements for removably fixing the external panel on an external face of the cabinet , characterized in that the reversible attachment elements comprise: - a plurality of clips , secured to the panel , configured such as to traverse the cabinet and to project from a first face of the cabinet opposite the second face in contact with the panel when the panel is positioned on the cabinet in the position to be maintained by the reversible attachment elements, - at least one strap mounted on the cabinet and slipped into the clips in a direction from the second face towards the first face of the cabinet , - a tightening device capable of placing the strap in a first configuration, in which the strap is tensioned by the tightening device and pulls on the clips such as to clamp the panel on the cabinet . - a plurality of clips , secured to the panel , configured such as to traverse the cabinet and to project from a first face of the cabinet opposite the second face in contact with the panel when the panel is positioned on the cabinet in the position to be maintained by the reversible attachment elements, - at least one strap mounted on the cabinet and slipped into the clips in a direction from the second face towards the first face of the cabinet , - a tightening device capable of placing the strap in a first configuration, in which the strap is tensioned by the tightening device and pulls on the clips such as to clamp the panel on the cabinet .
A surgical robot system comprising: - a robot having a robot base , a robot arm coupled to the robot base , and an end-effector coupled to the robot arm , the end-effector having a guide tube with a central longitudinal axis and a single tracking marker affixed to the guide tube , wherein the single tracking marker is separated from the central longitudinal axis by a fixed distance; - an instrument having a centerline and an array extending from the instrument with a plurality of tracking markers attached thereto; and - at least one camera able to detect the single tracking marker on the guide tube and the plurality of tracking markers on the instrument , wherein the robot determines a detected distance between the centerline of the instrument and the single tracking marker to determine if the detected distance matches the fixed distance. - a robot having a robot base , a robot arm coupled to the robot base , and an end-effector coupled to the robot arm , the end-effector having a guide tube with a central longitudinal axis and a single tracking marker affixed to the guide tube , wherein the single tracking marker is separated from the central longitudinal axis by a fixed distance; - an instrument having a centerline and an array extending from the instrument with a plurality of tracking markers attached thereto; and - at least one camera able to detect the single tracking marker on the guide tube and the plurality of tracking markers on the instrument , wherein the robot determines a detected distance between the centerline of the instrument and the single tracking marker to determine if the detected distance matches the fixed distance.
A method for processing an image by an image processing apparatus, the method comprising: setting (S34, S52) a window within an input image; calculating (S54) projection values for each of a plurality of predetermined directions within the image included in the window; calculating (S56) a maximum difference value among the projection values for each of the plurality of the predetermined directions; generating (S36, S58) edge information using the maximum difference value for each of the plurality of predetermined directions; and processing and outputting the window using the edge information, wherein each of the projection values for each of the plurality of predetermined directions having direction angle α i is calculated using: dir i , z = ∫ x ∫ y g x y δ cosα i * x + sinα i * y − z where x and y are image coordinates in the window, and z is a distance from a center point of the window to x and y coordinates, wherein the maximum difference projection value among the projection values for a direction i is calculated using: diff i = max dir i , k − dir i , l wherein generating the edge information using the maximum difference value is performed using: dir = arg max p diff p − 1 2 + diff p + diff p + 1 2 − diff p + 3 2 + diff p + 4 diff p + 5 2 where each of diff p-1 , diff p+1 , diff p+3 , diff p+4 , and diff p+5 is maximum difference value for each direction. setting (S34, S52) a window within an input image; calculating (S54) projection values for each of a plurality of predetermined directions within the image included in the window; calculating (S56) a maximum difference value among the projection values for each of the plurality of the predetermined directions; generating (S36, S58) edge information using the maximum difference value for each of the plurality of predetermined directions; and processing and outputting the window using the edge information, wherein each of the projection values for each of the plurality of predetermined directions having direction angle α i is calculated using: dir i , z = ∫ x ∫ y g x y δ cosα i * x + sinα i * y − z where x and y are image coordinates in the window, and z is a distance from a center point of the window to x and y coordinates, wherein the maximum difference projection value among the projection values for a direction i is calculated using: diff i = max dir i , k − dir i , l wherein generating the edge information using the maximum difference value is performed using: dir = arg max p diff p − 1 2 + diff p + diff p + 1 2 − diff p + 3 2 + diff p + 4 diff p + 5 2 where each of diff p-1 , diff p+1 , diff p+3 , diff p+4 , and diff p+5 is maximum difference value for each direction.
Adjustable mounting for mobile communication devices having an optical sensor, comprising - a base , positionable on a work surface, having a front edge, a rear edge and two side edges connecting these front and rear edges, - a receiving part arranged over the base for the communication device , wherein the receiving part has at least one front and/or rear edge running parallel to the front and/or rear edge of the base and two side edges connecting these front and rear edges, and - a spacer part which holds the receiving part and the base at a variable distance from and/or angle to one another, which is pivotably connected to the base and to the receiving part at one of the mutually parallel front edge or rear edge of both the base and the receiving part , wherein the length of the spacer piece is chosen such that the clear width of the space between the support points thereof for the pivotable connection to the base and to the receiving part is somewhat greater than the length of the side edge of the receiving part connecting the front and rear edges thereof, characterised in that , - the spacer part , starting asymmetrically to one side from one of the side edges of the receiving part and from the side edge of the base located beneath it, is arranged to extend in the direction of the middle of the receiving part and the base . - a base , positionable on a work surface, having a front edge, a rear edge and two side edges connecting these front and rear edges, - a receiving part arranged over the base for the communication device , wherein the receiving part has at least one front and/or rear edge running parallel to the front and/or rear edge of the base and two side edges connecting these front and rear edges, and - a spacer part which holds the receiving part and the base at a variable distance from and/or angle to one another, which is pivotably connected to the base and to the receiving part at one of the mutually parallel front edge or rear edge of both the base and the receiving part , wherein the length of the spacer piece is chosen such that the clear width of the space between the support points thereof for the pivotable connection to the base and to the receiving part is somewhat greater than the length of the side edge of the receiving part connecting the front and rear edges thereof, characterised in that , - the spacer part , starting asymmetrically to one side from one of the side edges of the receiving part and from the side edge of the base located beneath it, is arranged to extend in the direction of the middle of the receiving part and the base .
A feeder housing for an agricultural machine , said feeder housing comprising: a housing body comprising a top surface , a bottom surface , two opposing side surfaces each extending between the top and bottom surfaces, a front opening through which crop material is directed into the feeder housing from a header of the agricultural machine , and a rear opening that is substantially opposite the front opening through which crop is expelled from the feeder housing and is delivered to a threshing mechanism of the agricultural machine ; a cross member extending between and either directly or indirectly connecting the opposing side surfaces , characterized in that the feeder housing further comprises: a first bracket that is connected to the cross member and one of the side surfaces ; and a second bracket that is connected to the cross member and the other of the side surfaces . a housing body comprising a top surface , a bottom surface , two opposing side surfaces each extending between the top and bottom surfaces, a front opening through which crop material is directed into the feeder housing from a header of the agricultural machine , and a rear opening that is substantially opposite the front opening through which crop is expelled from the feeder housing and is delivered to a threshing mechanism of the agricultural machine ; a cross member extending between and either directly or indirectly connecting the opposing side surfaces , characterized in that the feeder housing further comprises: a first bracket that is connected to the cross member and one of the side surfaces ; and a second bracket that is connected to the cross member and the other of the side surfaces . a first bracket that is connected to the cross member and one of the side surfaces ; and a second bracket that is connected to the cross member and the other of the side surfaces .
A composition comprising a nominal dose of a mast cell stabilizer which is a pharmaceutically acceptable salt of cromolyn for use in a method of treating a patient having a systemic mast cell related disorder comprising administering to the patient the composition with a high efficiency nebulizer, wherein administration of the composition to the patient with a high efficiency nebulizer provides a systemically effective amount of the mast cell stabilizer to treat the systemic mast cell related disorder, wherein the composition further comprises purified water, sodium chloride and sodium EDTA and does not comprise mannitol, and wherein the systemic mast cell related disorder is selected from the group consisting of mastocytosis; kidney fibrosis; fibrotic skin diseases and hepatic fibrosis.
A wheelbarrow comprising: - a frame comprising a pair of poles , - a wheel , - a container , - each pole comprising a free end part , a leg part , and a front part for attaching the wheel , - a gripping system rotatably mounted to the poles , the gripping system being capable of changing between a transport position and a dumping position, the gripping system comprising a first handle and a second handle , each of the handles comprising: - a gripping means , comprising a grasping segment for gripping the gripping system by the user's hand, - an attachment means extending protruding from the gripping means , the attachment means being pivot connectingly mounted to a pole , the handles are integral with each other. - characterised in that the grasping segment of each gripping means extends in parallel to the free end part of a pole when the gripping system is in the transport position. - a frame comprising a pair of poles , - a wheel , - a container , - each pole comprising a free end part , a leg part , and a front part for attaching the wheel , - a gripping system rotatably mounted to the poles , the gripping system being capable of changing between a transport position and a dumping position, the gripping system comprising a first handle and a second handle , each of the handles comprising: - a gripping means , comprising a grasping segment for gripping the gripping system by the user's hand, - an attachment means extending protruding from the gripping means , the attachment means being pivot connectingly mounted to a pole , the handles are integral with each other. - a gripping means , comprising a grasping segment for gripping the gripping system by the user's hand, - an attachment means extending protruding from the gripping means , the attachment means being pivot connectingly mounted to a pole , the handles are integral with each other. - characterised in that the grasping segment of each gripping means extends in parallel to the free end part of a pole when the gripping system is in the transport position.
A discharge device for discharging electrostatic charges from a shaft , the discharge device comprising a brush head which is disposed on a contact end of a lever rocker and which serves to come into contact with the shaft, and a connection device which is disposed on a connection end of the lever rocker and which serves to connect to a grounding conductor , and a bearing seat which is formed between the contact end and the connection end and which serves to connect the lever rocker to a rocker bearing , the brush head having a fiber support comprising a fiber assembly composed of a plurality of unidirectional contact fibers which are provided with contact ends serving to come into contact with a contact surface of the shaft, the contact fibers being carbon fibers , characterized in that the fiber support has a clamping jaw assembly which holds the fiber assembly under preload between clamping jaws , the fiber ends of the carbon fibers of the fiber assembly forming a contact protrusion protruding from the clamping jaw assembly.
Polyarylene sulfide having an initial melt viscosity measured at 300°C of 70 to 200 Pa·s (700 to 2000 poise), and a melt viscosity after heat treated and molten at 300°C, equal to or greater than the initial melt viscosity, wherein melt viscosity change rate is in the range of +2% to +10% per 10 minutes as defined by the following Equation 1: Melt viscosity change rate % = 100 MV f / MV i − 1 wherein in the Equation 1, MV i denotes the initial melt viscosity of polyarylene sulfide, and MV f is the melt viscosity of polyarylene sulfide after heat treating the polyarylene sulfide at 300°C and melting it, wherein the MVf is melt viscosity measured under shear rate of 1rad/s in a plate-plate rheometer, 10 minutes after heat treating the polyarylene sulfide under inert gas atmosphere at 300°C for 3 minutes to melt it, wherein the polyarylene sulfide is prepared by a method comprising polymerization reaction of reactants including p-diiodobenzene , sulfur, and based on 100 parts by weight of the p-diiodobenzene, 0.25 to 0.43 parts by weight of a polymerization terminator, wherein a part of the sulfur is added to the initial reaction mixture 5 hours or more elapsed after the polymerization reaction is initiated, the polymerization reaction is further progressed for 3 hours to 8 hours after the additional amount of sulfur is added, the content of the additional amount of the sulfur is 1.5 to 5.0 parts by weight based on 100 parts by weight of the sulfur included in the initial reactants.