mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode suitable for carrying out oxygen evolution reaction in the electrolysis of water in alkaline conditions, the electrode comprising a. a ceramic material of formula (I) [(A x )A' (1-x) ] y B z B' (1-z) O 3-δ (I) where each of A and A', independently, is a rare earth or alkaline earth metal, x is in the range of 0 to 1, y is A-site occupancy and is in the range of 0.5 to 0.99, each of B and B', independently, is a transition metal, z is in the range of 0 to 1, O is oxygen, and δ is oxygen non-stoichiometry and is in the range of -1 to 1, and b. a second material being a metallic Ni, a metallic alloy of Fe and Ni, or a hydroxide of Ni and Fe; wherein stability factor (SF) of the ceramic material is defined in formula (II), SF = r O ⋅ 3 − δ 3 r B , av − n A , Av n A , Av − r A , av / r B , av ln r A , av r B , av where r o is the Shannon ionic radius of oxide ion (O 2- ), r B,av is the weighted average Shannon ionic radius of B and B', defined in formula (III), r B ,Av = z ⋅ r B + 1 − z ⋅ r B ′ where r B is the Shannon ionic radius of B and r B' is the ionic radius of B', n A,Av is the weighted average oxidation state of A and A', defined in formula (IV), n A ,Av = x ⋅ n A + 1 − x ⋅ n A ′ ⋅ y , where n A is the oxidation state of A and n A' is the oxidation state of A', r A,Av is the weighted average ionic radius of A and A', defined in formula (V), r A ,Av = x ⋅ r A + 1 − x ⋅ r A ′ ⋅ y , where r A is the Shannon ionic radius of A and r A' is the ionic radius of A', wherein the ceramic material is characterized by 1.67 ≤ SF ≤ 2.8. a. a ceramic material of formula (I) [(A x )A' (1-x) ] y B z B' (1-z) O 3-δ (I) where each of A and A', independently, is a rare earth or alkaline earth metal, x is in the range of 0 to 1, y is A-site occupancy and is in the range of 0.5 to 0.99, each of B and B', independently, is a transition metal, z is in the range of 0 to 1, O is oxygen, and δ is oxygen non-stoichiometry and is in the range of -1 to 1, and b. a second material being a metallic Ni, a metallic alloy of Fe and Ni, or a hydroxide of Ni and Fe; wherein stability factor (SF) of the ceramic material is defined in formula (II), SF = r O ⋅ 3 − δ 3 r B , av − n A , Av n A , Av − r A , av / r B , av ln r A , av r B , av where r o is the Shannon ionic radius of oxide ion (O 2- ), r B,av is the weighted average Shannon ionic radius of B and B', defined in formula (III), r B ,Av = z ⋅ r B + 1 − z ⋅ r B ′ where r B is the Shannon ionic radius of B and r B' is the ionic radius of B', n A,Av is the weighted average oxidation state of A and A', defined in formula (IV), n A ,Av = x ⋅ n A + 1 − x ⋅ n A ′ ⋅ y , where n A is the oxidation state of A and n A' is the oxidation state of A', r A,Av is the weighted average ionic radius of A and A', defined in formula (V), r A ,Av = x ⋅ r A + 1 − x ⋅ r A ′ ⋅ y , where r A is the Shannon ionic radius of A and r A' is the ionic radius of A', wherein the ceramic material is characterized by 1.67 ≤ SF ≤ 2.8.
A system for washing and treating infants , comprising: - a medical equipment for keeping an infant (N) under controlled sterile and warm conditions; - a device for washing the infant (N), comprising a support frame and a flexible laminar element adapted to be secured thereto, said frame and said laminar element defining a housing for receiving the infant (N) while he/she is being washed and/or treated; wherein said flexible laminar element is a flexible sheet member comprising a disposable cloth made of medical grade sterilizable non-woven fabric which is designed to be coupled to said frame and to have such a size as to receive infants (N) of various sizes; wherein said housing is adapted to be introduced into said medical equipment and is accessible from outside and in that said frame comprises a single-unit structure composed of tubular members made of a medical-grade sterilizable metal or non-metal material, said frame having a substantially rectangular plan shape defined by a pair of longitudinal tubular members joined to a pair of raised transverse tubular members via respective substantially vertical posts , said transverse tubular members having slightly outwardly projecting ends and said cloth having a substantially rectangular shape with larger plan dimensions than said frame and with a peripheral rim which is folded back onto said frame and attached to said projections for stretching and forming said housing without using clips, in such a manner that at the end of each washing operation, an operator may easily remove said cloth from the frame by detaching said rim from said projections . - a medical equipment for keeping an infant (N) under controlled sterile and warm conditions; - a device for washing the infant (N), comprising a support frame and a flexible laminar element adapted to be secured thereto, said frame and said laminar element defining a housing for receiving the infant (N) while he/she is being washed and/or treated;
A container body decorator comprising: a controller having a software routine stored on a memory; a plurality of ink-jet printing heads in communication with the controller ; a segmented image transfer blanket having an endless circumferential configuration comprising a plurality of print surfaces each separated by a gap in the segmented image transfer blanket ; a printing site ; and a container body handling module , wherein the container body handling module comprises a plurality of impression rolls movable relative to the printing site , wherein each impression roll is configured to fit within an interior of each container body in a plurality of generally identical unadorned container bodies to be decorated by the container body decorator , wherein each impression roll in the plurality of impression rolls transports one container body in the plurality of container bodies to the printing site , wherein each container body in the plurality of container bodies contacts a printing surface of the segmented image transfer blanket at the printing site without subsequently contacting any other printing surfaces in the plurality of printing surfaces. a controller having a software routine stored on a memory; a plurality of ink-jet printing heads in communication with the controller ; a segmented image transfer blanket having an endless circumferential configuration comprising a plurality of print surfaces each separated by a gap in the segmented image transfer blanket ; a printing site ; and a container body handling module , wherein the container body handling module comprises a plurality of impression rolls movable relative to the printing site , wherein each impression roll is configured to fit within an interior of each container body in a plurality of generally identical unadorned container bodies to be decorated by the container body decorator , wherein each impression roll in the plurality of impression rolls transports one container body in the plurality of container bodies to the printing site , wherein each container body in the plurality of container bodies contacts a printing surface of the segmented image transfer blanket at the printing site without subsequently contacting any other printing surfaces in the plurality of printing surfaces.
A method for retrieving and presenting objects in an automated Surface Mount Device (SMD) warehouse adapted to obtain information related to upcoming SMT jobs, said automated SMD warehouse comprising at least one actuator , such as a robot or robotic arm, configured to automatically handling objects within said automated Surface Mount Device (SMD) warehouse , the method comprising: - receiving at least one of input data and a parameter representing, or used by said automated Surface Mount Device (SMD) warehouse for determining, a position within said automated Surface Mount Device (SMD) warehouse ; - retrieving, by the use of at least one of said at least one actuator , a bin comprising a plurality of slots or compartments each configured for holding a bin load unit , each bin load unit comprises or constitutes a component tape reel , from said position within said automated SMD warehouse at least partly based on said at least one of input data and/or a parameter representing said position within said automated Surface Mount Device (SMD) warehouse , wherein the method is characterized in that the retrieving of the bin is performed based on an upcoming SMT job and said bin has been pre-loaded with bin load units based on said SMT job; and - presenting, by the use of at least one of said at least one actuator , said retrieved bin at, or close to, an output port , such as an opening, of said automated Surface Mount Device (SMD) warehouse . - receiving at least one of input data and a parameter representing, or used by said automated Surface Mount Device (SMD) warehouse for determining, a position within said automated Surface Mount Device (SMD) warehouse ; - retrieving, by the use of at least one of said at least one actuator , a bin comprising a plurality of slots or compartments each configured for holding a bin load unit , each bin load unit comprises or constitutes a component tape reel , from said position within said automated SMD warehouse at least partly based on said at least one of input data and/or a parameter representing said position within said automated Surface Mount Device (SMD) warehouse , wherein the method is characterized in that the retrieving of the bin is performed based on an upcoming SMT job and said bin has been pre-loaded with bin load units based on said SMT job; and - presenting, by the use of at least one of said at least one actuator , said retrieved bin at, or close to, an output port , such as an opening, of said automated Surface Mount Device (SMD) warehouse .
A flip-flop circuit for receiving a test signal (STI) at a test-in terminal (TI) and a data signal (SDI) at a data-in terminal (DI) and generating a scan-out signal (S22; S62; S92), comprising: a buffer (20; 60; 90) having an input terminal coupled to the test-in terminal (TI) and an output terminal and further having a first power terminal (20A; 60A; 90A) and a second power terminal (20B; 60B; 90B), wherein the buffer (20; 60; 90) operates to generate a buffering signal (S20; S60; S90); characterized by a scan flip-flop (23; 63, 93) receiving the buffering signal (S20; S60; S90) and the data signal (SDI) and controlled by a test-enable signal (STE) to generate the scan-out signal (S22; S62; S92) according to the buffering signal (S20; S60; S90) or the data signal, wherein the scan flip-flop (23; 63, 93) further generates a test-enable reverse signal (STEB) which is the reverse of the test-enable signal (STE), and wherein the first power terminal of the buffer receives the test-enable signal (STE) or the second power terminal of the buffer receives the test-enable reverse signal (STEB). a buffer (20; 60; 90) having an input terminal coupled to the test-in terminal (TI) and an output terminal and further having a first power terminal (20A; 60A; 90A) and a second power terminal (20B; 60B; 90B), wherein the buffer (20; 60; 90) operates to generate a buffering signal (S20; S60; S90); characterized by a scan flip-flop (23; 63, 93) receiving the buffering signal (S20; S60; S90) and the data signal (SDI) and controlled by a test-enable signal (STE) to generate the scan-out signal (S22; S62; S92) according to the buffering signal (S20; S60; S90) or the data signal, wherein the scan flip-flop (23; 63, 93) further generates a test-enable reverse signal (STEB) which is the reverse of the test-enable signal (STE), and wherein the first power terminal of the buffer receives the test-enable signal (STE) or the second power terminal of the buffer receives the test-enable reverse signal (STEB).
Oil-in-water emulsion-type pharmaceutical composition comprising: - a fatty phase containing 3"-tert-butyl-4'-(2-hydroxyethoxy)-4"-pyrrolidin-1-yl[1,1';3',1"]terphenyl-4-carboxylic acid (compound A) as active ingredient, phenoxyethanol as the main solvent of compound A, one or more co-solvent oils selected from caprylic/capric triglycerides, sweet almond oil, Apricot Kernel Oil PEG-6 Ester, refined coconut oil, and one or more mineral oils, - an aqueous phase comprising at least one surfactant from the sucrose ester family, at least one polyol and purified water. - a fatty phase containing 3"-tert-butyl-4'-(2-hydroxyethoxy)-4"-pyrrolidin-1-yl[1,1';3',1"]terphenyl-4-carboxylic acid (compound A) as active ingredient, phenoxyethanol as the main solvent of compound A, one or more co-solvent oils selected from caprylic/capric triglycerides, sweet almond oil, Apricot Kernel Oil PEG-6 Ester, refined coconut oil, and one or more mineral oils, - an aqueous phase comprising at least one surfactant from the sucrose ester family, at least one polyol and purified water.
A scanning projector for a display apparatus, the scanning projector comprising: a first scanning reflector configured to steer a light beam in at least a first plane; a second scanning reflector configured to steer the light beam received from the first scanning reflector in at least a second plane; and beam relay optics configured to relay a first pupil defined at the first scanning reflector to a second pupil defined at the second scanning reflector, and to relay the second pupil to an output pupil of the scanning projector, wherein the beam relay optics comprises a first polarization beam splitter, PBS, and a first concave reflector coupled to the first PBS, wherein the first PBS is disposed in a triple-pass configuration for routing the light beam sequentially to the first scanning reflector and to the first concave reflector in a first two passes, and toward the second scanning reflector in a third pass, and wherein the first PBS is disposed to direct the light beam sequentially to the first scanning reflector in a first pass and to the first concave reflector in a second pass, the beam relay optics further comprising a second PBS and a second concave reflector coupled to the second PBS, wherein the second PBS is disposed in a triple-pass configuration to direct the light beam received from the first PBS sequentially toward the second scanning reflector and toward the second concave reflector in a first two passes through the second PBS, and toward the output pupil in a third pass. a first scanning reflector configured to steer a light beam in at least a first plane; a second scanning reflector configured to steer the light beam received from the first scanning reflector in at least a second plane; and beam relay optics configured to relay a first pupil defined at the first scanning reflector to a second pupil defined at the second scanning reflector, and to relay the second pupil to an output pupil of the scanning projector, wherein the beam relay optics comprises a first polarization beam splitter, PBS, and a first concave reflector coupled to the first PBS, wherein the first PBS is disposed in a triple-pass configuration for routing the light beam sequentially to the first scanning reflector and to the first concave reflector in a first two passes, and toward the second scanning reflector in a third pass, and wherein the first PBS is disposed to direct the light beam sequentially to the first scanning reflector in a first pass and to the first concave reflector in a second pass, the beam relay optics further comprising a second PBS and a second concave reflector coupled to the second PBS, wherein the second PBS is disposed in a triple-pass configuration to direct the light beam received from the first PBS sequentially toward the second scanning reflector and toward the second concave reflector in a first two passes through the second PBS, and toward the output pupil in a third pass.
A cardiac rhythm management system, comprising: at least one first implantable stimulation device and at least one second implantable stimulation device, wherein the at least one first implantable stimulation device comprises a first detection unit adapted to detect a patient's cardiac rhythm and a first processor adapted to analyze the detected patient's cardiac rhythm and to deliver signals for a first antitachycardia pacing therapy, wherein the at least one second implantable stimulation device comprises a second detection unit adapted to detect the patient's cardiac rhythm and a second processor adapted to analyze the detected patient's cardiac rhythm and to deliver signals for shock therapy or a second antitachycardia pacing therapy, and wherein the first processor is adapted to allow delivery of signals for antitachycardia pacing therapy only if the analysis of the patient's cardiac rhythm within a pre-defined preceding time period A reveals a pre-defined tachycardia criterion A' and an absence of a shock therapy, and/or wherein the second processor is adapted to allow delivery of signals for shock therapy or a second antitachycardia therapy only if the analysis of the patient's cardiac rhythm within a pre-defined preceding time period B reveals a pre-defined tachycardia criterion B' and an absence of a first antitachycardia pacing therapy provided by the at least one first implantable stimulation device. at least one first implantable stimulation device and at least one second implantable stimulation device, wherein the at least one first implantable stimulation device comprises a first detection unit adapted to detect a patient's cardiac rhythm and a first processor adapted to analyze the detected patient's cardiac rhythm and to deliver signals for a first antitachycardia pacing therapy, wherein the at least one second implantable stimulation device comprises a second detection unit adapted to detect the patient's cardiac rhythm and a second processor adapted to analyze the detected patient's cardiac rhythm and to deliver signals for shock therapy or a second antitachycardia pacing therapy, and wherein the first processor is adapted to allow delivery of signals for antitachycardia pacing therapy only if the analysis of the patient's cardiac rhythm within a pre-defined preceding time period A reveals a pre-defined tachycardia criterion A' and an absence of a shock therapy, and/or wherein the second processor is adapted to allow delivery of signals for shock therapy or a second antitachycardia therapy only if the analysis of the patient's cardiac rhythm within a pre-defined preceding time period B reveals a pre-defined tachycardia criterion B' and an absence of a first antitachycardia pacing therapy provided by the at least one first implantable stimulation device.
Drifting device for a tubular good including a body , an actuator propelling the body through the tubular good, characterized in that the drifting device further comprises a cylindrical drift mandrel and at least one attachment part attaching the cylindrical drift mandrel to the body , wherein the attachment part is so configured to enable a degree of mobility of the cylindrical drift mandrel with respect to the body along a radial direction.
An electronic device, comprising a housing , a first functional module , a second functional module , and a third functional module, wherein the third functional module is disposed in the housing , the third functional module comprises an acoustic component , a sound guide channel is disposed in the housing , the second functional module and the first functional module are mounted on the housing , with an assembly gap present between the second functional module and the first functional module , and the acoustic component communicates with the assembly gap through the sound guide channel .
Spray gun for spraying a product, comprising: a grip or handle , a metallic body connected to the grip or handle , a nozzle that can be fed through a duct internal to the body and is able to spray the product, characterized by comprising a jacket made of rigid material superimposed on the metallic material of the body, the jacket uniformly covering the entire body surrounding the openings of its internal ducts. a grip or handle , a metallic body connected to the grip or handle , a nozzle that can be fed through a duct internal to the body and is able to spray the product, characterized by comprising a jacket made of rigid material superimposed on the metallic material of the body, the jacket uniformly covering the entire body surrounding the openings of its internal ducts.
A method for wireless communication, the method comprising: monitoring, by a user equipment, UE, , signal strength, such as Reference Signal Received Power, or signal quality, such as Reference Signal Received Quality, of reference signals, RS, transmitted in a discontinuous transmission, DTX, mode with a predetermined subframe pattern by a small cell ; sending, by the UE to a macro cell , a measurement report including a cell identity associated with the RS when the signal strength or the signal quality of received RS at the UE satisfies a condition dependent upon a transmit power difference between the macro cell and the small cell, causing the macro cell to send a message to the small cell for activating the small cell, the macro cell being a wireless cell that operates in an active state; receiving, from the macro cell , transmit power information associated with the small cell , wherein the transmit power information indicates data signal transmit power of the small cell for downlink transmission, wherein the transmit power information is indicated in at least one of a downlink control information, DCI, format, or a radio resource control, RRC, message; and receiving data signals from the small cell in accordance with the received transmit power information. monitoring, by a user equipment, UE, , signal strength, such as Reference Signal Received Power, or signal quality, such as Reference Signal Received Quality, of reference signals, RS, transmitted in a discontinuous transmission, DTX, mode with a predetermined subframe pattern by a small cell ; sending, by the UE to a macro cell , a measurement report including a cell identity associated with the RS when the signal strength or the signal quality of received RS at the UE satisfies a condition dependent upon a transmit power difference between the macro cell and the small cell, causing the macro cell to send a message to the small cell for activating the small cell, the macro cell being a wireless cell that operates in an active state; receiving, from the macro cell , transmit power information associated with the small cell , wherein the transmit power information indicates data signal transmit power of the small cell for downlink transmission, wherein the transmit power information is indicated in at least one of a downlink control information, DCI, format, or a radio resource control, RRC, message; and receiving data signals from the small cell in accordance with the received transmit power information.