mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a semiconductor ferroelectric memory device comprising a semiconductor substrate , having a source and a drain region; and an insulator , a ferroelectric film and a metal , which are layered in this order on the semiconductor substrate , wherein the ferroelectric film comprises a bismuth layer perovskite crystalline ferroelectric, wherein the insulator , the ferroelectric film and the metal are sequentially formed in the indicated order on the semiconductor substrate and thereafter are subjected to annealing for ferroelectric crystallization, in a mixed gas; wherein said ferroelectric film comprises one selected from the class which consists of a film consisting of strontium, bismuth, tantalum and oxygen, a film of calcium, strontium, bismuth, tantalum and oxygen, a film of strontium, bismuth, tantalum, niobium and oxygen, and a film of calcium, strontium, bismuth, tantalum, niobium and oxygen; characterized in that said metal is Ir, and said mixed gas has oxygen added to nitrogen at a volume proportion of 0.0002 or more and less than 0.02 by volume of oxygen to nitrogen and that an interfacial layer is formed between the semiconductor substrate and the insulator during the annealing, and the interfacial layer is thinner than 3.4 nm after the annealing. said ferroelectric film comprises one selected from the class which consists of a film consisting of strontium, bismuth, tantalum and oxygen, a film of calcium, strontium, bismuth, tantalum and oxygen, a film of strontium, bismuth, tantalum, niobium and oxygen, and a film of calcium, strontium, bismuth, tantalum, niobium and oxygen; characterized in that said metal is Ir, and said mixed gas has oxygen added to nitrogen at a volume proportion of 0.0002 or more and less than 0.02 by volume of oxygen to nitrogen and that an interfacial layer is formed between the semiconductor substrate and the insulator during the annealing, and the interfacial layer is thinner than 3.4 nm after the annealing.
Timepiece incorporating an actuator formed by an electromechanical device (6; 6A; 6B; 6C; 6D), which comprises an electromagnetic system (10; 10A; 10B; 10C; 10D) as well as a mechanical element that is mobile in translation and associated with the electromagnetic system, and by an electric control circuit , the electromagnetic system being formed by a permanent magnet and a coil , one out of the two of which is carried by a flexible member of the electromechanical device and the other by a support of this flexible member, said mechanical element being formed by said flexible member and the actuator being arranged in such a way as to allow, in response to an electric activation signal generated by the electric control circuit and provided to the coil to engender an electromagnetic force between this coil and said permanent magnet, a movement of the mechanical element from a rest position, in which it is provided that the mechanical element remains in the absence of an activation of the electromagnetic system, to a position of contact with a determined part of the timepiece, in which said flexible member is formed at least partially by an elastic element that is arranged in such a way as to engender a mechanical force of return of the mechanical element in the direction of said rest position over at least a majority of the distance that the mechanical element can travel, when the electric control circuit generates said electric activation signal, between the rest position and the contact position, this contact position ending said at least a majority of said distance, the actuator further comprising a magnetic element (26; 50; 54; 74) arranged in such a way as to be able to interact with said permanent magnet (12; 52) to engender between them a magnetic force that is exerted on the mechanical element when the latter is in the rest position, this magnetic force having a direction opposite to that of said electromagnetic force over at least an initial part of said distance from the rest position and an intensity which decreases, over said at least an initial part, when the mechanical element moves away from the rest position and which is less than the intensity that said electromagnetic force has for any position of said mechanical element in said at least an initial part.
Ready-to-use liquid pharmaceutical solution, comprising - an aqueous solvent, - a bortezomib ester that is present in dissolved form in the solvent, wherein the component for forming the bortezomib ester is mannitol, wherein the solution has a shelf life at a temperature of 2 to 8°C of at least 3 months, wherein the bortezomib content does not up to the end of the shelf life fall below 90% of the bortezomib originally used. - an aqueous solvent, - a bortezomib ester that is present in dissolved form in the solvent, wherein the component for forming the bortezomib ester is mannitol,
A solid form of a HCl salt of Compound (I-S): which is characterized by an XRPD pattern comprising peaks at approximately 13.71, 14.22, and 20.87 degrees 2θ.
A method for preparing an acrylic acid, the method comprising: supplying a lactic acid aqueous solution to a reactor and performing a dehydration reaction to prepare a reaction product including an acrylic acid; supplying a reactor discharge stream including the reaction product to a first cooling tower and supplying an upper discharge stream from the first cooling tower to a second cooling tower; supplying a first acrylic acid aqueous solution stream discharged from a lower portion of the second cooling tower to an extraction column; supplying an upper discharge stream from the extraction column and a second acrylic acid aqueous solution stream discharged from a lower portion of the first cooling tower to a distillation column; and separating the acrylic acid from a lower discharge stream from the distillation column. supplying a lactic acid aqueous solution to a reactor and performing a dehydration reaction to prepare a reaction product including an acrylic acid; supplying a reactor discharge stream including the reaction product to a first cooling tower and supplying an upper discharge stream from the first cooling tower to a second cooling tower; supplying a first acrylic acid aqueous solution stream discharged from a lower portion of the second cooling tower to an extraction column; supplying an upper discharge stream from the extraction column and a second acrylic acid aqueous solution stream discharged from a lower portion of the first cooling tower to a distillation column; and separating the acrylic acid from a lower discharge stream from the distillation column.
A system for modulating the function of a cardiac valve , said system comprising: (a) a structural modification device for structurally altering a cardiac valve ; (b) a blood flow velocity measurement device for monitoring blood flow velocity through the cardiac valve ; (c) a cardiac pacing device for modulating via electrical stimulation the function of the cardiac valve structurally altered by the structural modification device, said cardiac pacing device being in operational communication with said blood flow velocity measurement device; wherein the system is characterized in that it comprises: (d) an implantable processing element in operational communication with the blood flow velocity measurement device and the cardiac pacing device, the processing element operative for automatically modulating the activity of the cardiac pacing device based on blood flow velocity data received from the blood flow velocity measurement device by selecting an appropriate pacing protocol or routine based on predetermined blood flow velocity parameters; and wherein modulation of the cardiac pacing device occurs automatically without a human operator first evaluating the blood flow velocity data and directly or manually modulating the activity of the pacing device, wherein said processing element matches the blood flow velocity data with a set of different predetermined blood flow velocity parameters, and then selects a pacing routine which is paired with a best matched blood flow velocity parameter of said set of different predetermined blood flow velocity parameters, wherein said pacing protocol or routine is a pacing protocol for modulating valve function. (a) a structural modification device for structurally altering a cardiac valve ; (b) a blood flow velocity measurement device for monitoring blood flow velocity through the cardiac valve ; (c) a cardiac pacing device for modulating via electrical stimulation the function of the cardiac valve structurally altered by the structural modification device, said cardiac pacing device being in operational communication with said blood flow velocity measurement device;
A precision glass mold comprising: a fine grained graphite mold body having one or more mold features; an encapsulating coating atop the graphite mold body and the one or more mold features, wherein the encapsulating coating comprises a titanium carbide layer or region atop the graphite mold body and has a coefficient of thermal expansion that is within 1 part per million/°C of the coefficient of thermal expansion of the graphite mold body. a fine grained graphite mold body having one or more mold features; an encapsulating coating atop the graphite mold body and the one or more mold features, wherein the encapsulating coating comprises a titanium carbide layer or region atop the graphite mold body and has a coefficient of thermal expansion that is within 1 part per million/°C of the coefficient of thermal expansion of the graphite mold body.
A three-dimensional printing method, comprising: applying a ceramic build material; applying a liquid functional material, including an anionically stabilized susceptor material, to at least a portion of the ceramic build material; and applying a sintering aid/fixer fluid, including a cationically stabilized amphoteric alumina particulate material, to the at least the portion of the ceramic build material, the applied anionically stabilized susceptor material and the applied cationically stabilized amphoteric alumina particulate material reacting to immobilize the anionically stabilized susceptor material, thereby patterning the at least the portion of the ceramic build material. applying a ceramic build material; applying a liquid functional material, including an anionically stabilized susceptor material, to at least a portion of the ceramic build material; and applying a sintering aid/fixer fluid, including a cationically stabilized amphoteric alumina particulate material, to the at least the portion of the ceramic build material, the applied anionically stabilized susceptor material and the applied cationically stabilized amphoteric alumina particulate material reacting to immobilize the anionically stabilized susceptor material, thereby patterning the at least the portion of the ceramic build material.
An intra-vascular device comprising; (i) a substantially planar filter ; and (ii) a central member connected to said filter , ; (iii) when said device is deployed in a primary blood vessel having more than one secondary blood vessels: a. said device is configured such that said filter covers at least two of said more than one secondary blood vessels; and b. said device is capable of collapse along a longitudinal axis; characterized in that: said central member is a structural element within a perimeter of said filter. (i) a substantially planar filter ; and (ii) a central member connected to said filter , ; (iii) when said device is deployed in a primary blood vessel having more than one secondary blood vessels: a. said device is configured such that said filter covers at least two of said more than one secondary blood vessels; and b. said device is capable of collapse along a longitudinal axis; characterized in that: said central member is a structural element within a perimeter of said filter. a. said device is configured such that said filter covers at least two of said more than one secondary blood vessels; and b. said device is capable of collapse along a longitudinal axis;
A method for wireless communication, comprising: receiving a set of resource indicator bits in one or more control channel elements, CCEs; determining that possible bit combinations for the set of resource indicator bits is less than available uplink control channel resources; identifying a first CCE of the one or more CCEs based at least in part on the determining; selecting an uplink control channel resource for uplink control information, UCI, transmission based at least in part on the set of resource indicator bits and the first CCE of the one or more CCEs; and transmitting the UCI using the selected uplink control channel resource. receiving a set of resource indicator bits in one or more control channel elements, CCEs; determining that possible bit combinations for the set of resource indicator bits is less than available uplink control channel resources; identifying a first CCE of the one or more CCEs based at least in part on the determining; selecting an uplink control channel resource for uplink control information, UCI, transmission based at least in part on the set of resource indicator bits and the first CCE of the one or more CCEs; and transmitting the UCI using the selected uplink control channel resource.
A converting line for processing tissue paper (V1, V2, V3, N), comprising: - an unwinder (3; 5) for unwinding reels of tissue paper; - a rewinding machine for forming rolls (R) of tissue paper; - a feeding path between the unwinder (3; 5) and the rewinding machine , for at least one ply (V1; V2; V3; V4) of tissue paper; - along the feeding path, a first optical detection unit (31; 37; 39) to detect the thickness of the tissue paper fed along the feeding path in a feeding direction; - a control system , interfacing with the detection unit (31; 37; 39) and adapted to act on at least one production parameter of the converting line according to the detected tissue paper thickness; characterized in that said optical detection unit (31; 37; 39) comprises at least one light emitter and at least one light receiver , arranged opposite each other and adapted to emit and receive a light beam (L), which intersects a cylindrical surface of a guide roller (34; 38; 40), around which the tissue paper (V1; V2; V3; V4; N) is driven. - an unwinder (3; 5) for unwinding reels of tissue paper; - a rewinding machine for forming rolls (R) of tissue paper; - a feeding path between the unwinder (3; 5) and the rewinding machine , for at least one ply (V1; V2; V3; V4) of tissue paper; - along the feeding path, a first optical detection unit (31; 37; 39) to detect the thickness of the tissue paper fed along the feeding path in a feeding direction; - a control system , interfacing with the detection unit (31; 37; 39) and adapted to act on at least one production parameter of the converting line according to the detected tissue paper thickness;
Windscreen assembly for a vehicle , comprising: - a windscreen panel group comprising a windscreen panel and a support structure to support the windscreen panel ; and - a wiper group comprising a wiper , a drive motor group to operate the wiper , a tank for a liquid and pump operationally connected to the tank ; wherein said wiper group is supported by the windscreen panel group , the windscreen assembly being characterized in that said windscreen assembly is configured to be removably coupled to a frame of said vehicle; and wherein said windscreen assembly can be mounted and dismounted in block to and from the vehicle by mounting and dismounting said support structure to and from the vehicle frame. - a windscreen panel group comprising a windscreen panel and a support structure to support the windscreen panel ; and - a wiper group comprising a wiper , a drive motor group to operate the wiper , a tank for a liquid and pump operationally connected to the tank ;
A chemical-mechanical polishing composition for polishing a silicon nitride containing substrate, the polishing composition comprising: an aqueous carrier; cationic silica abrasive particles dispersed in the aqueous carrier, the cationic silica abrasive particles having a zeta potential of at least 10 mV in the polishing composition; a polishing additive selected from the group consisting of a polyether amine, a polysilamine, a polyvinylimidazole, and a combination thereof, wherein the polyether amine and the polysilamine have corresponding weight average molecular weights of less than about 1,000 g/mol; and wherein the polishing composition has a pH of greater than about 6. an aqueous carrier; cationic silica abrasive particles dispersed in the aqueous carrier, the cationic silica abrasive particles having a zeta potential of at least 10 mV in the polishing composition; a polishing additive selected from the group consisting of a polyether amine, a polysilamine, a polyvinylimidazole, and a combination thereof, wherein the polyether amine and the polysilamine have corresponding weight average molecular weights of less than about 1,000 g/mol; and wherein the polishing composition has a pH of greater than about 6.
Drill head for chambering, comprising a body with a rear end and a front end , the body having a mechanical interface at the rear end for connection to a drill tube , the body comprising a central hole , the drill head comprising two insert holders which are pivotably mounted on the body , and the insert holders and an advancing element being coupled to one another via a link motion in such a way that a movement of the advancing element in the axial direction relative to the body triggers a pivoting movement of the insert holders , and the advancing element being axially displaceably guided in the hole , characterized in that the advancing element has a first slotted link and a second slotted link , in that a pin and optionally a roller are provided on the insert holders , in that the pin or the roller of the first insert holder interacts with the first slotted link of the advancing element , and in that the pin or the roller of the second insert holder interacts with a second slotted link of the advancing element .
A pharmaceutical composition for use in treating and/or preventing gingivoperiodontitis or peri-implantitis, wherein the composition comprises sodium ethylenediaminetetraacetate, cetylpyridinium chloride, octyl phenol ethoxylate, sodium bicarbonate and an antimicrobial peptide, wherein the antimicrobial peptide is selected from the group consisting of antimicrobial peptides represented by the amino acid sequences of SEQ ID NO: 2, SEQ ID NO: 3, and SEQ ID NO: 4.
An arrangement comprising: a mobile communication device that comprises an audio processing means communicatively coupled to an accessory device that comprises an audio transducer means, the mobile communication device comprising a control means for adjusting at least one operating parameter of the audio processing means and at least one operating parameter of the audio transducer means, the control means arranged to obtain, via the communicative coupling from the accessory device, an accessory type identification assigned for the accessory device, obtain a device type identification assigned for the mobile communication device, select a respective predefined value for each of said at least one operating parameter of the audio processing means and said at least one operating parameter of the audio transducer means in dependence of the pair of obtained accessory type identifier and the device type identifier, and set each of said at least one operating parameter of the audio processing means and said at least one operating parameter of the audio transducer means to the respective selected values for subsequent operation of the arrangement. a mobile communication device that comprises an audio processing means communicatively coupled to an accessory device that comprises an audio transducer means, the mobile communication device comprising a control means for adjusting at least one operating parameter of the audio processing means and at least one operating parameter of the audio transducer means, the control means arranged to obtain, via the communicative coupling from the accessory device, an accessory type identification assigned for the accessory device, obtain a device type identification assigned for the mobile communication device, select a respective predefined value for each of said at least one operating parameter of the audio processing means and said at least one operating parameter of the audio transducer means in dependence of the pair of obtained accessory type identifier and the device type identifier, and set each of said at least one operating parameter of the audio processing means and said at least one operating parameter of the audio transducer means to the respective selected values for subsequent operation of the arrangement. obtain, via the communicative coupling from the accessory device, an accessory type identification assigned for the accessory device, obtain a device type identification assigned for the mobile communication device, select a respective predefined value for each of said at least one operating parameter of the audio processing means and said at least one operating parameter of the audio transducer means in dependence of the pair of obtained accessory type identifier and the device type identifier, and set each of said at least one operating parameter of the audio processing means and said at least one operating parameter of the audio transducer means to the respective selected values for subsequent operation of the arrangement.