mhurhangee/patent-ind-claim-en huggingface dataset:
A corrosion inhibitor comprising: (a) an inorganic alkali and/or alkaline earth metal compound; and (b) an aldehyde and/or ketone component comprising: at least one aromatic ring comprising a ketone and/or aldehyde group and at least one pendant group represented by -OR 1 , wherein the aldehyde and/or ketone component comprises a substituted benzaldehyde, a substituted benzophenone, or a substituted 4-pyrone and wherein each R 1 is independently selected from hydrogen, an alkyl group, or an aryl group. (a) an inorganic alkali and/or alkaline earth metal compound; and (b) an aldehyde and/or ketone component comprising: at least one aromatic ring comprising a ketone and/or aldehyde group and at least one pendant group represented by -OR 1 ,
An optoelectronic component for receiving light, which component comprises a housing (3; 13; 23; 33; 53; 63; 73; 83; 93; 103) with an axially extending cavity (4; 14; 24; 34) arranged to receive an incoming beam; at least one adjustable arrangement comprising at least one lens (6; 16; 26; 36; 56; 66; 76; 86; 96; 106), and a first adjustment means (Ax, Ay; A1, A2) for adjusting the focal point of said lens relative to the end surface of an optical fiber (2; 12; 22; 32; 57; 67; 74, 77; 87a, 87b; 94; 107) connectable to the housing; characterized in that the arrangement further comprises a first body (7; 17; 27; 37) supporting the lens (6; 16; 26; 36; 56; 66; 76; 86; 96; 106) and to influence said lens position; a second body (8; 18; 28; 38) contacting the first body and comprising a spherical bearing allowing the first body (7; 17; 27; 37) to be journalled about a point (P; P1; P2; P3) in the housing distant from the lens; and that wherein the first adjustment means (A1, A2) is arranged to act on the first body (7; 17; 27; 37) remote from the second body (8; 18; 28; 38), and to adjust the axis of the first body in two orthogonal directions relative to the axis of the housing by means of the spherical bearing in the second body (8; 18; 28; 38) to rotate the first body spherically around the distant point (P; P1; P2; P3) to alter the position of said lens, in order to locate the focal point of the lens on the end surface of the optical fiber a second body (8; 18; 28; 38) contacting the first body and comprising a spherical bearing allowing the first body (7; 17; 27; 37) to be journalled about a point (P; P1; P2; P3) in the housing distant from the lens; and that wherein the first adjustment means (A1, A2) is arranged to act on the first body (7; 17; 27; 37) remote from the second body (8; 18; 28; 38), and to adjust the axis of the first body in two orthogonal directions relative to the axis of the housing by means of the spherical bearing in the second body (8; 18; 28; 38) to rotate the first body spherically around the distant point (P; P1; P2; P3) to alter the position of said lens, in order to locate the focal point of the lens on the end surface of the optical fiber
A loading cam device comprising: a circular plate-shaped cam plate including one axial side surface which is a first cam surface having concaves and convexes in a circumferential direction; a disc including one axial side surface which faces the first cam surface and is a second cam surface having concaves and convexes in a circumferential direction; a circular ring-shaped retainer provided between the first cam surface and the second cam surface ; and a plurality of balls provided to contact the first and second cam surfaces at each rolling surface thereof while being rollably held in the retainer , characterized in that projections protruding towards the cam plate and the disc are provided on both axial side surfaces of the retainer at a plurality of positions at which phases of the projections in the circumferential direction are offset from pockets for holding the respective balls , and one axial surfaces of the cam plate and the disc are formed with concave portions at portions facing the respective projections , the concave portions having an axial depth deepest at a center portion thereof in the circumferential direction and becoming shallower towards both end portions thereof in the circumferential direction. a circular plate-shaped cam plate including one axial side surface which is a first cam surface having concaves and convexes in a circumferential direction; a disc including one axial side surface which faces the first cam surface and is a second cam surface having concaves and convexes in a circumferential direction; a circular ring-shaped retainer provided between the first cam surface and the second cam surface ; and a plurality of balls provided to contact the first and second cam surfaces at each rolling surface thereof while being rollably held in the retainer , characterized in that projections protruding towards the cam plate and the disc are provided on both axial side surfaces of the retainer at a plurality of positions at which phases of the projections in the circumferential direction are offset from pockets for holding the respective balls , and one axial surfaces of the cam plate and the disc are formed with concave portions at portions facing the respective projections , the concave portions having an axial depth deepest at a center portion thereof in the circumferential direction and becoming shallower towards both end portions thereof in the circumferential direction.
Vapor cycle refrigeration system for an aircraft, the system comprising: a compressor , a condenser unit with a condenser radiator , a condenser fan and a condenser air duct configured to direct a stream of air generated by the condenser fan through the condenser radiator , an expansion device , an evaporator unit with an evaporator radiator , an evaporator fan and an evaporator air duct configured to direct a stream of air generated by the evaporator fan through the evaporator radiator , and a piping system connecting the compressor , the condenser radiator , the expansion device and the evaporator radiator in a closed circuit for a refrigerant, characterized in that each of the compressor , the condenser radiator , the condenser fan , the expansion device , the evaporator radiator , the evaporator fan and the piping system is fully supported directly or indirectly by at least one of the condenser air duct and the evaporator air duct , preferably by the condenser air duct , in such a manner that the system is self-supporting. a compressor , a condenser unit with a condenser radiator , a condenser fan and a condenser air duct configured to direct a stream of air generated by the condenser fan through the condenser radiator , an expansion device , an evaporator unit with an evaporator radiator , an evaporator fan and an evaporator air duct configured to direct a stream of air generated by the evaporator fan through the evaporator radiator , and a piping system connecting the compressor , the condenser radiator , the expansion device and the evaporator radiator in a closed circuit for a refrigerant, characterized in that each of the compressor , the condenser radiator , the condenser fan , the expansion device , the evaporator radiator , the evaporator fan and the piping system is fully supported directly or indirectly by at least one of the condenser air duct and the evaporator air duct , preferably by the condenser air duct , in such a manner that the system is self-supporting.
A pharmaceutical composition comprising a peptide of formula: Thr-Lys-Pro-Arg-Pro-X, wherein X is OH, OCH 3 , or NH 2 group.
A portable medical device comprising: a power source ; an electrically actuated valve ; a control unit for regulating at least one of a control voltage and a control current for actuation of the valve ; and at least one inertial sensor for detecting and transmitting motion signals representative of external motions applied to the portable medical device, wherein the motion signals comprise a rate of change in motion; wherein the control unit is configured to regulate the at least one of the control voltage and the control current of the valve as a function of the motion signals of the at least one inertial sensor by: determining that the rate of change in motion is non-zero; and responsive to the determining, regulating the at least one of the control voltage and the control current of the valve based on the rate of change in motion. a power source ; an electrically actuated valve ; a control unit for regulating at least one of a control voltage and a control current for actuation of the valve ; and at least one inertial sensor for detecting and transmitting motion signals representative of external motions applied to the portable medical device, wherein the motion signals comprise a rate of change in motion; wherein the control unit is configured to regulate the at least one of the control voltage and the control current of the valve as a function of the motion signals of the at least one inertial sensor by: determining that the rate of change in motion is non-zero; and responsive to the determining, regulating the at least one of the control voltage and the control current of the valve based on the rate of change in motion. determining that the rate of change in motion is non-zero; and responsive to the determining, regulating the at least one of the control voltage and the control current of the valve based on the rate of change in motion.
Mixing ring suitable for dissolving a portion of solute in a portion of solvent, the mixing ring comprising: a solvent input path and a solute input path fluidly associated to a mixing path , wherein, the solvent input path is configured to receive a portion of solvent and the solute input path is configured to receive a portion of solute, the mixing ring is structurally configured to lead the portion of solvent and the portion of solute to the mixing path , and the mixing ring further comprises a diffuser mostly placed in an internal area of the mixing path , the diffuser is configured to lead the portion of solvent towards the portion of solute, wherein the solute input path comprises a solute neck , wherein the solvent input path is configured as a solvent input zone and a choke zone , the choke zone disposed between the solvent input zone and the mixing path , wherein the interconnection between the solvent input zone and the choke zone establishes a first diameter (A) and the interconnection between the choke zone and the mixing path establishes a second diameter (B) which is smaller than the first diameter (A), the internal diameter of the choke zone gradually decreasing from the first diameter (A) to the second diameter (B) until a point in the vicinity of the interconnection between the choke zone and the mixing path , characterized in that the solute neck defines a projection ramp configured to lead the portion of solute towards the diffuser , the projection ramp establishing a neck's angle (p) in relation to an internal wall of the mixing path , wherein the neck's angle (ρ) is an acute angle. a solvent input path and a solute input path fluidly associated to a mixing path , wherein, the solvent input path is configured to receive a portion of solvent and the solute input path is configured to receive a portion of solute, the mixing ring is structurally configured to lead the portion of solvent and the portion of solute to the mixing path , and the mixing ring further comprises a diffuser mostly placed in an internal area of the mixing path , the diffuser is configured to lead the portion of solvent towards the portion of solute, wherein the solute input path comprises a solute neck , wherein the solvent input path is configured as a solvent input zone and a choke zone , the choke zone disposed between the solvent input zone and the mixing path , wherein the interconnection between the solvent input zone and the choke zone establishes a first diameter (A) and the interconnection between the choke zone and the mixing path establishes a second diameter (B) which is smaller than the first diameter (A), the internal diameter of the choke zone gradually decreasing from the first diameter (A) to the second diameter (B) until a point in the vicinity of the interconnection between the choke zone and the mixing path , characterized in that the solute neck defines a projection ramp configured to lead the portion of solute towards the diffuser , the projection ramp establishing a neck's angle (p) in relation to an internal wall of the mixing path , wherein the neck's angle (ρ) is an acute angle.
A hydrogen storage material in liquid form, the hydrogen storage material in liquid form comprises at least two different hydrogen storage components, each of the hydrogen storage components is selected from an unsaturated aromatic hydrocarbon or a heterocyclic unsaturated compound, and at least one of the hydrogen storage components is a low-melting-point compound whose melting point is lower than 80 DEG C; the hydrogen storage material further comprises a dehydrogenation additive; and the dehydrogenation additive is selected from one or more of petroleum ether and phenyl ether.
A watch-type terminal wearable on a user's wrist, the watch-type terminal comprising: a main body ; a band part connected to the main body and formed to be wearable on the wrist; an electrode unit disposed in the band so as to come into contact with the body of the user, and generating a current; and a controller configured to calculate an impedance value on the basis of a voltage sensed by the electrode unit , wherein the electrode unit includes a first electrode member which comes into contact with the wrist when the watch-type terminal is worn around the wrist and a second electrode member exposed to the outside, wherein the band part includes a first band and a second band connected to both ends of the main body , wherein the electrode unit includes the first electrode member formed on one surface of the second band and the second electrode member formed on the other surface of the second band , wherein the first band is fixed to the main body , and the second band is detachable from the main body, and wherein the second band further includes: a flexible circuit board electrically connecting the first and second electrode members , and a connection pin connected to the flexible circuit board and protruding to the outside of the second band , and wherein the main body further includes a connection hole allowing the connection pin to be inserted therein. a main body ; a band part connected to the main body and formed to be wearable on the wrist; an electrode unit disposed in the band so as to come into contact with the body of the user, and generating a current; and a controller configured to calculate an impedance value on the basis of a voltage sensed by the electrode unit , wherein the electrode unit includes a first electrode member which comes into contact with the wrist when the watch-type terminal is worn around the wrist and a second electrode member exposed to the outside, wherein the band part includes a first band and a second band connected to both ends of the main body , wherein the electrode unit includes the first electrode member formed on one surface of the second band and the second electrode member formed on the other surface of the second band , wherein the first band is fixed to the main body , and the second band is detachable from the main body, and wherein the second band further includes: a flexible circuit board electrically connecting the first and second electrode members , and a connection pin connected to the flexible circuit board and protruding to the outside of the second band , and wherein the main body further includes a connection hole allowing the connection pin to be inserted therein. a flexible circuit board electrically connecting the first and second electrode members , and a connection pin connected to the flexible circuit board and protruding to the outside of the second band , and wherein the main body further includes a connection hole allowing the connection pin to be inserted therein.
A method by a wireless device for determining a maximum output power, the method comprising: obtaining , by the wireless device , a first time resource for transmitting a first signal in a first cell on a first carrier; obtaining , by the wireless device , a second time resource for transmitting a second signal in a second cell on a second carrier; wherein the first and second carriers are component carriers of a carrier aggregation transmission; determining a reference time based on at least one of the first time resource and the second time resource, wherein the reference time is determined as a highest of the length of the first time resource and the length of the second time resource, determining the maximum output power to be applied for the entire reference time; based on the determined maximum output power, transmitting the first signal in the first cell and the second signal in the second cell. obtaining , by the wireless device , a first time resource for transmitting a first signal in a first cell on a first carrier; obtaining , by the wireless device , a second time resource for transmitting a second signal in a second cell on a second carrier; wherein the first and second carriers are component carriers of a carrier aggregation transmission; determining a reference time based on at least one of the first time resource and the second time resource, wherein the reference time is determined as a highest of the length of the first time resource and the length of the second time resource, determining the maximum output power to be applied for the entire reference time; based on the determined maximum output power, transmitting the first signal in the first cell and the second signal in the second cell.
A centrifugal impeller for a compressor through which a fluid can pass, the impeller presenting an axis of rotation (A), a front portion of small section, and a rear portion of large section, the impeller having blades each having a leading edge and a trailing edge , the rotation of the impeller sucking fluid in through the front of the impeller, the axial speed of the fluid passing through the impeller being transformed progressively into radial speed, the fluid leaving the impeller at its outer periphery, at the trailing edges of the blades, the blades being such that in a radial section plane intersecting the trailing edges of said blades, they are curved in the direction opposite to the direction of rotation of the impeller, and such that, in said radial section plane, the trailing edge portion of said blades is redirected in the direction of rotation of the impeller in such a manner that it forms an end fin such that the flow of fluid is deflected by being radially redirected, the impeller being characterized in that said end fin extends from the trailing edge of the blade over a length that, measured along the outer edge of said blade , represents more than 2% and less than 10% of the total length of said outer edge .
An image transfer device comprising; an image bearing belt for bearing an image to be transferred onto a recording medium (P); an opposed member providing opposed to the image bearing belt to form a transfer nip (N) therebetween, said opposed member having a contact surface contacting the recording medium (P) at the transfer nip (N); a secondary transfer opposed roller which is disposed inside a loop of the image bearing belt , wherein the secondary transfer opposed roller includes a penetration shaft member and a roller section , the penetration shaft member penetrating through a rotation center in its rotational axis direction to allow the roller section to execute idling rotation therearound; an engaging and disengaging device to engage and disengage the contact surface of the opposed member from a surface of the image bearing belt , wherein the opposed member is opposed to the surface of the image bearing belt and is configured to contact, via the image bearing belt , the secondary transfer opposed roller ; and a transfer bias device for applying an image transfer bias transferring the image from the image bearing belt to the recording medium (P) conveyed and pinched at the transfer nip (N), wherein the image transfer device further comprises a pressing device for applying a pressure to the transfer nip (N), wherein said engaging and disengaging device is configured to disengage the contact surface of the opposed member from the surface of the image bearing belt to make a gap (X) therebetween when an adjustment pattern (T1) is formed on a portion of the image bearing belt corresponding to an interval between recording mediums successively conveyed through the transfer nip (N) and passes therethrough, and wherein said transfer bias device applies a different bias than the image transfer bias between the image bearing belt and the opposed member when the adjustment pattern (T1) passes therebetween, characterized in that the engaging and disengaging device includes a pair of cams , idling rollers which are arranged opposite the cams , a cam driving motor configured to rotate the cams , and a controller which is configured to control the cam driving motor to rotate and stop the cams at different cam positions, wherein each of the cams is secured to one of the ends of the penetration shaft member in the lengthwise direction of the penetration shaft member , such that the cams are integrally rotatable with the penetration shaft member , wherein the cams each exhibit a prescribed shape providing two different profiles, such that four different cam positions (A, B, C, D) are obtainable, wherein the cam positions A and C correspond to the outer diameter of each cam , the cam position B has a deviation profile greater than the cam positions A and C and the cam position D has a deviation profile greater than the cam positions A and C, wherein the deviation profiles of the cams are each symmetrical, such that the opposed member can be depressed by the cams in the cam positions B and D so to change the gap (X) between the contact surface and the surface of the image bearing belt .
A patch comprising: a backing layer; and an adhesive layer, wherein the adhesive layer contains at least one drug selected from the group consisting of butorphanol and pharmaceutically acceptable salts thereof and a silicone-based adhesive base, a content of butorphanol and/or the pharmaceutically acceptable salt thereof in the adhesive layer is 3 to 5% by mass relative to the total mass of the adhesive layer in terms of a tartaric acid addition salt of butorphanol a content of the silicone-based adhesive base in the adhesive layer is 65 to 85% by mass relative to the total mass of the adhesive layer, and a mass per unit area of the adhesive layer is 40 to 80 g/m 2 . a backing layer; and an adhesive layer, wherein the adhesive layer contains at least one drug selected from the group consisting of butorphanol and pharmaceutically acceptable salts thereof and a silicone-based adhesive base, a content of butorphanol and/or the pharmaceutically acceptable salt thereof in the adhesive layer is 3 to 5% by mass relative to the total mass of the adhesive layer in terms of a tartaric acid addition salt of butorphanol a content of the silicone-based adhesive base in the adhesive layer is 65 to 85% by mass relative to the total mass of the adhesive layer, and a mass per unit area of the adhesive layer is 40 to 80 g/m 2 .