mhurhangee/ep-ind-claims huggingface dataset:
A rotary encoder (10, 30, 40, 50a-c, 60), the rotary encoder comprising - a rotor (12, 42), - a stator (14, 34, 44), - casting compound (16, 36, 46), the casting compound having a first surface (18a', 18a") facing the stator, the first surface having a first predetermined shape and being fixated in relation to the stator, and a second surface (18b, 418b) facing away from the stator, the second surface having a second predetermined shape, - a first housing (19, 419, 619), the first housing having a cavity, wherein the inside of the first housing forms walls of the cavity, the walls of the cavity being fixated in relation to the second surface, and wherein the stator is arranged within the cavity of the first housing, characterised in that the rotor comprises a shaft (321, 431) and a coding disc (322, 421) mounted at the shaft (321, 431), the stator comprises a stator disc (34, 441) through which the shaft (321, 431) extends, and the casting compound (16, 36, 46) is arranged radially distributed about the axis of rotation of the rotor (12, 42), along a longitudinal extension coinciding with the longitudinal extension of the stator (14, 34, 44) and at least part of the rotor (12, 42). - a rotor (12, 42), - a stator (14, 34, 44), - casting compound (16, 36, 46), the casting compound having a first surface (18a', 18a") facing the stator, the first surface having a first predetermined shape and being fixated in relation to the stator, and a second surface (18b, 418b) facing away from the stator, the second surface having a second predetermined shape, - a first housing (19, 419, 619), the first housing having a cavity, wherein the inside of the first housing forms walls of the cavity, the walls of the cavity being fixated in relation to the second surface, and wherein the stator is arranged within the cavity of the first housing, characterised in that the rotor comprises a shaft (321, 431) and a coding disc (322, 421) mounted at the shaft (321, 431), the stator comprises a stator disc (34, 441) through which the shaft (321, 431) extends, and the casting compound (16, 36, 46) is arranged radially distributed about the axis of rotation of the rotor (12, 42), along a longitudinal extension coinciding with the longitudinal extension of the stator (14, 34, 44) and at least part of the rotor (12, 42). the first housing having a cavity, wherein the inside of the first housing forms walls of the cavity, the walls of the cavity being fixated in relation to the second surface, and wherein the stator is arranged within the cavity of the first housing, characterised in that the rotor comprises a shaft (321, 431) and a coding disc (322, 421) mounted at the shaft (321, 431), the stator comprises a stator disc (34, 441) through which the shaft (321, 431) extends, and the casting compound (16, 36, 46) is arranged radially distributed about the axis of rotation of the rotor (12, 42), along a longitudinal extension coinciding with the longitudinal extension of the stator (14, 34, 44) and at least part of the rotor (12, 42).
Ultrasonic flowmeter with an ultrasonic sensor with at least one electromechanical transducer element and an electrode stamp which electrically contacts a first surface of the electromechanical transducer element, wherein the electrode stamp is designed in such a way that a maximum of 75% of the area of the first surface of the electromechanical transducer element is in electrical contact characterized in that the electrode stamp has a structured surface which electrically contacts the first surface of the electromechanical transducer element, wherein the structured surface of the electrode stamp is structured by recesses and wherein the electrode stamp can be pressed against the transducer element via at least one spring element.
Gutter element having a generally tubular form, with solid metal water-impermeable bottom and sides (2, 2'), a perforated metal water-permeable covering, - the gutter element has at least one end either narrowed or widened, so as to permit telescopic connections between elements; - the gutter element is equipped on each of its two lengthwise sides (2, 2') of integral suspension means (4, 4'); characterized in that - the transversal profile of the gutter, including the integral suspension means (4, 4'), is side-to-side symmetric. - the gutter element has at least one end either narrowed or widened, so as to permit telescopic connections between elements; - the gutter element is equipped on each of its two lengthwise sides (2, 2') of integral suspension means (4, 4'); characterized in that - the transversal profile of the gutter, including the integral suspension means (4, 4'), is side-to-side symmetric.
Vibratory elastography device (21, 31, 61) for the quantitative and/or qualitative measurement of viscoelastic properties of human or animal tissue, said device (21, 31, 61) being provided with: - a probe (20, 30, 60) including at least one ultrasonic transducer (23, 33, 63) and a low frequency vibration generator (22, 32, 62), the ultrasonic transducer(s) (23, 33, 63) generating ultrasonic waves enabling the analysis of the propagation of low frequency elastic waves propagating in a deep organ and generated by the low frequency vibration generator (22, 32, 62), the probe (20, 30, 60) being intended to be positioned in the vicinity of or in contact with the deep organ, - a controller (24, 34, 64), connected to the probe (20, 30, 60), including means of actuating the probe, the controller (24, 34, 64) being intended to be maintained outside of the human or animal body, - a wire link suited to transmit energy to said controller, - said vibratory elastography device (21, 31, 61) being characterised in that it comprises means of mechanical connection (25, 35, 65) of the probe (20, 30, 60) with the controller (24, 34, 64) to guide and position the probe in direct contact with or in the vicinity of the tissue of the organ of which it is wished to determine the viscoelastic properties, the means of mechanical connection (25, 35, 65) being formed by a filiform tube which forms a catheter of which the distal end contains the probe (20, 30, 60) and the proximal end includes the controller (24, 34, 64). - a probe (20, 30, 60) including at least one ultrasonic transducer (23, 33, 63) and a low frequency vibration generator (22, 32, 62), the ultrasonic transducer(s) (23, 33, 63) generating ultrasonic waves enabling the analysis of the propagation of low frequency elastic waves propagating in a deep organ and generated by the low frequency vibration generator (22, 32, 62), the probe (20, 30, 60) being intended to be positioned in the vicinity of or in contact with the deep organ, - a controller (24, 34, 64), connected to the probe (20, 30, 60), including means of actuating the probe, the controller (24, 34, 64) being intended to be maintained outside of the human or animal body, - a wire link suited to transmit energy to said controller, - said vibratory elastography device (21, 31, 61) being characterised in that it comprises means of mechanical connection (25, 35, 65) of the probe (20, 30, 60) with the controller (24, 34, 64) to guide and position the probe in direct contact with or in the vicinity of the tissue of the organ of which it is wished to determine the viscoelastic properties, the means of mechanical connection (25, 35, 65) being formed by a filiform tube which forms a catheter of which the distal end contains the probe (20, 30, 60) and the proximal end includes the controller (24, 34, 64).
A surgical system comprising: a monopolar energy generator; a surgical instrument electrically coupled to the monopolar energy generator comprising an electrode and configured to transmit electrosurgical energy through the electrode to tissue of a patient at a surgical site; characterized in further comprising: at least one detection circuit configured to: measure an amount of conductivity in a return path of the electrosurgical energy; determine that the amount of conductivity in the return path falls below a predetermined threshold; and transmit a signal to cause the monopolar generator to increase a leakage current in the surgical system by increasing alternating current frequency in the electrosurgical energy generation; wherein the monopolar energy generator comprises a sensor configured to determine that a monopolar energy circuit is completed by detecting that the leakage current has reached a ground terminal in the monopolar energy generator. a monopolar energy generator; a surgical instrument electrically coupled to the monopolar energy generator comprising an electrode and configured to transmit electrosurgical energy through the electrode to tissue of a patient at a surgical site; characterized in further comprising: at least one detection circuit configured to: measure an amount of conductivity in a return path of the electrosurgical energy; determine that the amount of conductivity in the return path falls below a predetermined threshold; and transmit a signal to cause the monopolar generator to increase a leakage current in the surgical system by increasing alternating current frequency in the electrosurgical energy generation; wherein the monopolar energy generator comprises a sensor configured to determine that a monopolar energy circuit is completed by detecting that the leakage current has reached a ground terminal in the monopolar energy generator. at least one detection circuit configured to: measure an amount of conductivity in a return path of the electrosurgical energy; determine that the amount of conductivity in the return path falls below a predetermined threshold; and transmit a signal to cause the monopolar generator to increase a leakage current in the surgical system by increasing alternating current frequency in the electrosurgical energy generation; measure an amount of conductivity in a return path of the electrosurgical energy; determine that the amount of conductivity in the return path falls below a predetermined threshold; and transmit a signal to cause the monopolar generator to increase a leakage current in the surgical system by increasing alternating current frequency in the electrosurgical energy generation; wherein the monopolar energy generator comprises a sensor configured to determine that a monopolar energy circuit is completed by detecting that the leakage current has reached a ground terminal in the monopolar energy generator.
A frangible wing slot seal suitable for preventing penetration of contaminants through a wing slot provided in the fuselage of a folding fin aerial rocket or missile the wing slot seal being frangible so as to permit deployment of a guidance wing through the wing slot by breaking of the guidance wing through the wing slot seal the wing slot seal comprising: a barrier sheet having an inner layer and an outer layer the barrier sheet having dimensions sufficient for covering the wing slot for overlapping a region of fuselage surrounding the wing slot the barrier sheet having a curvature corresponding substantially to a curvature of the fuselage, at least one of the inner and outer layers being a stiff layer which is resistant to deformation; a burst seam formed in the stiff layer of the barrier sheet the burst seam being configured so as to allow a guidance wing to separate and pass through the burst seam during deployment of the guidance wing, the burst seam being configured to close and resist penetration when a force is applied to the barrier sheet from outside of the rocket or missile; and an adhesive layer at least applicable to an inner surface of the barrier sheet, the adhesive layer being configured for adhering the barrier sheet to the region of fuselage surrounding the wing slot, the adhesive layer providing an adhesive strength which is sufficient to maintain the barrier sheet over the wing slot while the guidance wing breaks through the barrier sheet during deployment of the guidance wing. a barrier sheet having an inner layer and an outer layer the barrier sheet having dimensions sufficient for covering the wing slot for overlapping a region of fuselage surrounding the wing slot the barrier sheet having a curvature corresponding substantially to a curvature of the fuselage, at least one of the inner and outer layers being a stiff layer which is resistant to deformation; a burst seam formed in the stiff layer of the barrier sheet the burst seam being configured so as to allow a guidance wing to separate and pass through the burst seam during deployment of the guidance wing, the burst seam being configured to close and resist penetration when a force is applied to the barrier sheet from outside of the rocket or missile; and an adhesive layer at least applicable to an inner surface of the barrier sheet, the adhesive layer being configured for adhering the barrier sheet to the region of fuselage surrounding the wing slot, the adhesive layer providing an adhesive strength which is sufficient to maintain the barrier sheet over the wing slot while the guidance wing breaks through the barrier sheet during deployment of the guidance wing.
A cleaner comprising: a housing including a suction opening, a cyclone part configured to separate dust from air suctioned through the suction opening, and a dust bin configured to store dust separated from air by the cyclone part; an air guide fixed in the housing; a frame configured to be movable between a compression standby position and a dust compression position in the housing for compressing dust in the dust bin and brought into contact with the air guide at the compression standby position; a first guide part (764a, 764b) provided on the frame; and a second guide part (171c, 171d) provided on the guide, characterized in that the second guide part (171c, 171d) is coupled to the first guide part (764a, 764b) at the compression standby position of the frame, and in that one of the first guide part (764a, 764b) and the second guide part (171c, 171d) is a projection and the other is a recess in which the projection can be accommodated. a housing including a suction opening, a cyclone part configured to separate dust from air suctioned through the suction opening, and a dust bin configured to store dust separated from air by the cyclone part; an air guide fixed in the housing; a frame configured to be movable between a compression standby position and a dust compression position in the housing for compressing dust in the dust bin and brought into contact with the air guide at the compression standby position; a first guide part (764a, 764b) provided on the frame; and a second guide part (171c, 171d) provided on the guide, characterized in that the second guide part (171c, 171d) is coupled to the first guide part (764a, 764b) at the compression standby position of the frame, and in that one of the first guide part (764a, 764b) and the second guide part (171c, 171d) is a projection and the other is a recess in which the projection can be accommodated.
Chipcard comprising - a card body formed by at least one dielectric layer and one metal layer superposed on the dielectric layer, - the metal layer comprising a cavity passing through its thickness and having an outline, the metal layer further comprising a slit passing through its thickness and extending from the cavity to an edge of the card body, - the card further comprising an antenna extending in a plane of the cavity of the metal layer, characterized in that the card further comprises at least one metal label at least partially covering the cavity and the antenna, the label being fixed onto one of the faces of the card, the metal label comprising a metal layer, the metal layer comprising a pattern represented by etched metal lines, the pattern of the label comprising a first part formed by first etched metal lines delimiting at least one zone that is at least partially of metal, and a second part composed of second etched metal lines forming only open loops, each second line of the second part of the pattern prolongs a first line of the first part of the pattern, such that the second part of the pattern forms the continuity of the first part of the pattern to form the pattern in its entirety, and in that the metal label is positioned such that only the second part of the pattern is disposed opposite the antenna. - a card body formed by at least one dielectric layer and one metal layer superposed on the dielectric layer, - the metal layer comprising a cavity passing through its thickness and having an outline, the metal layer further comprising a slit passing through its thickness and extending from the cavity to an edge of the card body, - the card further comprising an antenna extending in a plane of the cavity of the metal layer, the metal label comprising a metal layer, the metal layer comprising a pattern represented by etched metal lines, the pattern of the label comprising a first part formed by first etched metal lines delimiting at least one zone that is at least partially of metal, and a second part composed of second etched metal lines forming only open loops, each second line of the second part of the pattern prolongs a first line of the first part of the pattern, such that the second part of the pattern forms the continuity of the first part of the pattern to form the pattern in its entirety, and in that the metal label is positioned such that only the second part of the pattern is disposed opposite the antenna.
A discrimination program that causes a computer to execute a procedure, the procedure comprising: obtaining a first image to represent a photographing range including at least a part of a range irradiated by light emitted from a light source, information to be transmitted being superimposed on the light; specifying a first region where the information is decoded, on the first image; and discriminating which of the light source and an object reflecting the light is photographed in the first region, based on a similarity between a color of the first region and a color of the light emitted from the light source, wherein the discriminating further comprises obtaining a vector representing an amplitude or intensity of each color component included in color of the first region, and calculating a cosine similarity between the vector and a reference vector representing an amplitude or intensity of each color component included in color of the light emitted from the light source, as the similarity. obtaining a first image to represent a photographing range including at least a part of a range irradiated by light emitted from a light source, information to be transmitted being superimposed on the light; specifying a first region where the information is decoded, on the first image; and discriminating which of the light source and an object reflecting the light is photographed in the first region, based on a similarity between a color of the first region and a color of the light emitted from the light source, wherein the discriminating further comprises obtaining a vector representing an amplitude or intensity of each color component included in color of the first region, and calculating a cosine similarity between the vector and a reference vector representing an amplitude or intensity of each color component included in color of the light emitted from the light source, as the similarity.
A component for use in an electrochemical cell, the component comprising: a pin including a pin diameter and a pin length, the pin including a first material; a lead attached to the pin, the lead including a lead width, a lead thickness, and a lead length, the lead including a second material different from the first material of the pin, wherein the lead and the pin are at least partially overlapped with one another, wherein at least a portion of the lead that overlaps the pin includes a channel within the lead in which at least a portion of the pin sits, the channel including a channel depth, a channel length, and a channel opening defined at least partially by opposing first and second channel sides (152, 154) extending the channel length, wherein the channel depth is substantially equal to the pin diameter of the pin; and at least a first joint formed along at least a portion of the first channel side, wherein the first joint includes the second material of the lead deformed to at least partially close the channel opening at the location of the first joint such that a gap between the first joint and the second channel side is formed, the gap being less than the pin diameter of the pin, thereby retaining the pin within the channel of the lead to attach the lead to the pin. a pin including a pin diameter and a pin length, the pin including a first material; a lead attached to the pin, the lead including a lead width, a lead thickness, and a lead length, the lead including a second material different from the first material of the pin, wherein the lead and the pin are at least partially overlapped with one another, wherein at least a portion of the lead that overlaps the pin includes a channel within the lead in which at least a portion of the pin sits, the channel including a channel depth, a channel length, and a channel opening defined at least partially by opposing first and second channel sides (152, 154) extending the channel length, wherein the channel depth is substantially equal to the pin diameter of the pin; and at least a first joint formed along at least a portion of the first channel side, wherein the first joint includes the second material of the lead deformed to at least partially close the channel opening at the location of the first joint such that a gap between the first joint and the second channel side is formed, the gap being less than the pin diameter of the pin, thereby retaining the pin within the channel of the lead to attach the lead to the pin.
A method for the simultaneous production of a fermented, solid product and ethanol comprising the following steps: 1) providing a mixture of milled or flaked biomass or biomass disintegrated by means of acid or alkaline pressure cooking or ultrasonic treatment, comprising oligosaccharides and/or polysaccharides and live yeast in a dry matter ratio of from 2:1 to 100:1, and water; 2) fermenting the mixture resulting from step under conditions where the water content in the initial mixture does not exceed 65 % by weight, for 1-36 hours at a temperature of 25-60°C under anaerobic conditions; 3) incubating the fermented mixture resulting from step for 0.5-240 minutes at a temperature of 70-150°C; and 4) separating wet fermented, solid product from the fermented mixture resulting from step; further comprising that the fermentation in step is performed in one or more interconnected paddle worm or continuous worm conveyers with inlet means for the fermentation mixture and additives and outlet means for the ferment as well as control means for rotation speed, temperature and pH, and further comprising a step of 5) separating crude ethanol from the fermented mixture in step by vacuum and/or in step by vacuum or by injection of steam and condensing the surplus stripping steam. 1) providing a mixture of milled or flaked biomass or biomass disintegrated by means of acid or alkaline pressure cooking or ultrasonic treatment, comprising oligosaccharides and/or polysaccharides and live yeast in a dry matter ratio of from 2:1 to 100:1, and water; 2) fermenting the mixture resulting from step under conditions where the water content in the initial mixture does not exceed 65 % by weight, for 1-36 hours at a temperature of 25-60°C under anaerobic conditions; 3) incubating the fermented mixture resulting from step for 0.5-240 minutes at a temperature of 70-150°C; and 4) separating wet fermented, solid product from the fermented mixture resulting from step; further comprising that the fermentation in step is performed in one or more interconnected paddle worm or continuous worm conveyers with inlet means for the fermentation mixture and additives and outlet means for the ferment as well as control means for rotation speed, temperature and pH, and further comprising a step of 5) separating crude ethanol from the fermented mixture in step by vacuum and/or in step by vacuum or by injection of steam and condensing the surplus stripping steam.