mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic surgical instrument , comprising: an ultrasonic waveguide formed of metal; an ultrasonic transducer mounted to the ultrasonic waveguide and configured to operate in a D31 mode, the ultrasonic transducer comprising: a first ceramic piezoelectric element having a first side attached to a first side of the ultrasonic waveguide by a first bonding material (7106a,b); and a second ceramic piezoelectric element having a first side attached to a second side of the ultrasonic waveguide by the first bonding material (7106a,b), wherein the first side of the ultrasonic waveguide is opposite the second side of the ultrasonic waveguide , wherein the first material (7106a,b) is a solder bonding material. an ultrasonic waveguide formed of metal; an ultrasonic transducer mounted to the ultrasonic waveguide and configured to operate in a D31 mode, the ultrasonic transducer comprising: a first ceramic piezoelectric element having a first side attached to a first side of the ultrasonic waveguide by a first bonding material (7106a,b); and a second ceramic piezoelectric element having a first side attached to a second side of the ultrasonic waveguide by the first bonding material (7106a,b), wherein the first side of the ultrasonic waveguide is opposite the second side of the ultrasonic waveguide , a first ceramic piezoelectric element having a first side attached to a first side of the ultrasonic waveguide by a first bonding material (7106a,b); and a second ceramic piezoelectric element having a first side attached to a second side of the ultrasonic waveguide by the first bonding material (7106a,b), wherein the first side of the ultrasonic waveguide is opposite the second side of the ultrasonic waveguide , wherein the first material (7106a,b) is a solder bonding material.
A simulated BB-gun having a power control device, which simulated BB-gun loads a plastic BB bullet on an airflow jet route and shoots the plastic BB bullet by using a compressed airflow, wherein - the power control device controls power for shooting a bullet in accordance with mass of the bullet , - the power control device is configured as an opening/closing mechanism through which a compressed airflow leaks, and - the power control device has an airflow path that allows the compressed airflow to leak in response to a pressure increase in the compressed airflow which results from instantaneous halt of the compressed airflow caused by the bullet , and the opening/closing mechanism of the airflow path , and - wherein the opening/closing mechanism opens the airflow path in response to increasing of pressure of the compressed air, wherein the power control device is located at an upstream position from a position on an airflow jet route where the bullet is loaded, so that a lighter bullet is shot by shortening an airflow leakage time while the airflow leakage time is lengthened before a heavier bullet is shot, wherein the opening/closing mechanism deforms elastically and opens the airflow path . - the power control device controls power for shooting a bullet in accordance with mass of the bullet , - the power control device is configured as an opening/closing mechanism through which a compressed airflow leaks, and - the power control device has an airflow path that allows the compressed airflow to leak in response to a pressure increase in the compressed airflow which results from instantaneous halt of the compressed airflow caused by the bullet , and the opening/closing mechanism of the airflow path , and - wherein the opening/closing mechanism opens the airflow path in response to increasing of pressure of the compressed air,
A method of manufacturing a hot press-formed part by hot pressing a coated steel sheet formed with a Zn-Ni plating layer on a surface of a steel sheet , wherein the steel sheet has a chemical composition consisting of, in mass%, C: 0.15 % or more and 0.50 % or less, Si: 0.05 % or more and 2.00 % or less, Mn: 0.50 % or more and 3.00 % or less, P: 0.10 % or less, S: 0.050 % or less, Al: 0.10 % or less, and N: 0.010 % or less, optionally one or more of Cr: 0.01 % or more and 0.50 % or less, V: 0.01 % or more and 0.50 % or less, Mo: 0.01 % or more and 0.50 % or less, Ni: 0.01 % or more and 0.50 % or less, Ti: 0.01 % or more and 0.20 % or less, Nb: 0.01 % or more and 0.10 % or less, B: 0.0002 % or more and 0.0050 % or less, and Sb: 0.003 % or more and 0.030 % or less, and the balance consisting of Fe and unavoidable impurities, the method comprising: heating the coated steel sheet to a temperature range of Ac 3 transformation temperature to 1000 °C; cooling the heated coated steel sheet to a temperature of 550 °C or lower and 410 °C or higher, at a cooling rate of 100 °C/s or higher, by squeezing the coated steel sheet with a cooling press tool , wherein the cooling press tool comprises an upper cooling tool and a lower cooling tool , each having a flat surface configured to contact the coated steel sheet and wherein both front and back surfaces of the coated steel sheet are squeezed entirely with the cooling press tool ; press forming the coated steel sheet by squeezing the steel sheet between a die and a punch of a press forming tool to obtain a formed body , the press forming being initiated within 5 seconds after the cooling while the temperature of the coated steel sheet is 550 °C or lower and 400 °C or higher; and quenching the formed body , while squeezing the formed body with the press forming tool and holding at its press bottom dead center, to obtain a hot press-formed part. heating the coated steel sheet to a temperature range of Ac 3 transformation temperature to 1000 °C; cooling the heated coated steel sheet to a temperature of 550 °C or lower and 410 °C or higher, at a cooling rate of 100 °C/s or higher, by squeezing the coated steel sheet with a cooling press tool , wherein the cooling press tool comprises an upper cooling tool and a lower cooling tool , each having a flat surface configured to contact the coated steel sheet and wherein both front and back surfaces of the coated steel sheet are squeezed entirely with the cooling press tool ; press forming the coated steel sheet by squeezing the steel sheet between a die and a punch of a press forming tool to obtain a formed body , the press forming being initiated within 5 seconds after the cooling while the temperature of the coated steel sheet is 550 °C or lower and 400 °C or higher; and quenching the formed body , while squeezing the formed body with the press forming tool and holding at its press bottom dead center, to obtain a hot press-formed part.
A security or identification device comprising a membrane laser structure configured to be optically pumped, the membrane laser structure comprising: a flexible emission layer comprising a gain material, wherein the gain material comprises a thickness of at least 10 nm; and one or more structures formed in or associated with the flexible emission layer, wherein the one or more structures comprise one or more gratings comprising a groove depth of 30nm to 120nm and are configured to provide distributed optical feedback in the emission layer to produce a laser light output having at least one property representing an identifier.
An adapter (10; 40; 50; 60; 70; 100; 107; 108) for a medical device catheter , said adapter (10; 40; 50; 60; 70; 100; 107; 108) comprising: a proximal portion (30; 42; 52; 62; 72; 110; 111; 112; 113; 114) configured to be inserted in and interface with an inner lumen of a medical device catheter ; a distal portion (20; 41; 51; 61; 71; 170; 171; 172; 173; 174) configured to be arranged outside the inner lumen of the medical device catheter and expand or modify the configuration or use of the medical device catheter ; and an attachment mechanism comprising a coil (12; 130) arranged at the proximal portion (30; 42; 52; 62; 72; 110; 111; 112; 113; 114), characterised in that , a surface of the coil (12; 130) is configured to directly engage with a surface of the inner lumen of the medical device catheter and secure the adapter to the medical device catheter . a proximal portion (30; 42; 52; 62; 72; 110; 111; 112; 113; 114) configured to be inserted in and interface with an inner lumen of a medical device catheter ; a distal portion (20; 41; 51; 61; 71; 170; 171; 172; 173; 174) configured to be arranged outside the inner lumen of the medical device catheter and expand or modify the configuration or use of the medical device catheter ; and an attachment mechanism comprising a coil (12; 130) arranged at the proximal portion (30; 42; 52; 62; 72; 110; 111; 112; 113; 114), characterised in that , a surface of the coil (12; 130) is configured to directly engage with a surface of the inner lumen of the medical device catheter and secure the adapter to the medical device catheter .
A block copolymer of the following Chemical Formula 1 : wherein in Chemical Formula 1: X 1 and X 2 are each independently an ester bond, an amide bond, a urethane bond, a urea bond, or a carbonate bond; L is a substituted or unsubstituted C 1-10 alkylene, a substituted or unsubstituted C 6-60 arylene, or a substituted or unsubstituted C 2-60 heteroarylene including one or more heteroatoms selected from the group consisting of O, N, Si, and S; and n and m are each independently an integer from 1 to 10,000. X 1 and X 2 are each independently an ester bond, an amide bond, a urethane bond, a urea bond, or a carbonate bond; L is a substituted or unsubstituted C 1-10 alkylene, a substituted or unsubstituted C 6-60 arylene, or a substituted or unsubstituted C 2-60 heteroarylene including one or more heteroatoms selected from the group consisting of O, N, Si, and S; and n and m are each independently an integer from 1 to 10,000.
A passenger seat construction , comprising: a fixed frame including spaced frame members that extend vertically and are laterally positioned at respective left and right sides of the seat;and a rocking frame including a seat pan , characterized in that the passenger seat construction further comprises a pair of spaced rockers that are part of the rocking frame and positioned to rock on portions of the fixed frame while supporting the seat pan , each rocker being positioned laterally inward of a respective frame member to provide a passenger-left rocker and a passenger-right rocker; the passenger seat construction comprises guides carried on each of the spaced rockers engaged to travel within slots of each of the spaced frame members to guide rocking motion of the rocking frame relative to the fixed frame . a fixed frame including spaced frame members that extend vertically and are laterally positioned at respective left and right sides of the seat;and a rocking frame including a seat pan , characterized in that the passenger seat construction further comprises a pair of spaced rockers that are part of the rocking frame and positioned to rock on portions of the fixed frame while supporting the seat pan , each rocker being positioned laterally inward of a respective frame member to provide a passenger-left rocker and a passenger-right rocker; the passenger seat construction comprises guides carried on each of the spaced rockers engaged to travel within slots of each of the spaced frame members to guide rocking motion of the rocking frame relative to the fixed frame .
An IV access device comprising: a catheter adapter from which a catheter extends distally, the catheter adapter including a wing ; and a needle hub from which a needle extends distally, the needle hub being configured to be coupled to the catheter adapter such that the needle extends through the catheter; wherein the needle hub further includes a paddle grip that is configured to be positioned adjacent the wing when the needle hub is coupled to the catheter adapter , the paddle grip being oriented at an angle; wherein, when the needle hub is not coupled to the catheter adapter , the wing is positioned in a flat orientation; characterized in that the wing is formed of a flexible material that allows the wing to pivot from a flat orientation into an angled orientation when the paddle grip is adjacent the wing ; and wherein the paddle grip is oriented at an angle that causes the wing to be substantially parallel with the paddle grip when the paddle grip abuts the wing . a catheter adapter from which a catheter extends distally, the catheter adapter including a wing ; and a needle hub from which a needle extends distally, the needle hub being configured to be coupled to the catheter adapter such that the needle extends through the catheter; wherein the needle hub further includes a paddle grip that is configured to be positioned adjacent the wing when the needle hub is coupled to the catheter adapter , the paddle grip being oriented at an angle; wherein, when the needle hub is not coupled to the catheter adapter , the wing is positioned in a flat orientation; characterized in that the wing is formed of a flexible material that allows the wing to pivot from a flat orientation into an angled orientation when the paddle grip is adjacent the wing ; and wherein the paddle grip is oriented at an angle that causes the wing to be substantially parallel with the paddle grip when the paddle grip abuts the wing .
A device meter comprising: a sensor to sense an output of a media device; an interface to communicate with a data processor; a signature reporter to report to the data processor via the interface media signatures of a first type to monitor media presented by the media device, the media signatures of the first type generated from a signal sensed by the sensor; and a signature generator to: generate the media signatures of the first type; generate media signatures of a second type, different from the first type, from the sensed signal to continue monitoring the media presented by the media device after receipt, from the data processor via the interface , of an indication that a first media signature of the first type is associated with first reference media; and in response to detection at the device meter of a change in a source of the media presented by the media device, revert to generation of the media signatures of the first type to monitor the media presented by the media device. a sensor to sense an output of a media device; an interface to communicate with a data processor; a signature reporter to report to the data processor via the interface media signatures of a first type to monitor media presented by the media device, the media signatures of the first type generated from a signal sensed by the sensor; and a signature generator to: generate the media signatures of the first type; generate media signatures of a second type, different from the first type, from the sensed signal to continue monitoring the media presented by the media device after receipt, from the data processor via the interface , of an indication that a first media signature of the first type is associated with first reference media; and in response to detection at the device meter of a change in a source of the media presented by the media device, revert to generation of the media signatures of the first type to monitor the media presented by the media device. generate the media signatures of the first type; generate media signatures of a second type, different from the first type, from the sensed signal to continue monitoring the media presented by the media device after receipt, from the data processor via the interface , of an indication that a first media signature of the first type is associated with first reference media; and in response to detection at the device meter of a change in a source of the media presented by the media device, revert to generation of the media signatures of the first type to monitor the media presented by the media device.
A process for creating an assembly with a pressure sensitive adhesive comprising: applying a light curable composition to a first substrate of the assembly; curing the light curable composition in only a single light exposure step to form a fully polymerized pressure sensitive adhesive; and contacting the pressure sensitive adhesive to a second substrate with sufficient force to bond the second substrate to the first substrate to complete the assembly with the pressure sensitive adhesive, the process having a rework capability comprising: heating the assembly to a temperature of 80 to 100 °C to re-work the pressure sensitive adhesive after the completion of the assembly to reduce the peel strength of the pressure sensitive adhesive; and peeling the pressure sensitive adhesive from one of the first substrate or the second substrate while at the temperature. applying a light curable composition to a first substrate of the assembly; curing the light curable composition in only a single light exposure step to form a fully polymerized pressure sensitive adhesive; and contacting the pressure sensitive adhesive to a second substrate with sufficient force to bond the second substrate to the first substrate to complete the assembly with the pressure sensitive adhesive, the process having a rework capability comprising: heating the assembly to a temperature of 80 to 100 °C to re-work the pressure sensitive adhesive after the completion of the assembly to reduce the peel strength of the pressure sensitive adhesive; and peeling the pressure sensitive adhesive from one of the first substrate or the second substrate while at the temperature. heating the assembly to a temperature of 80 to 100 °C to re-work the pressure sensitive adhesive after the completion of the assembly to reduce the peel strength of the pressure sensitive adhesive; and peeling the pressure sensitive adhesive from one of the first substrate or the second substrate while at the temperature.
An apparatus for modifying the temperature of a person's skin in a localized region, the apparatus comprising: a skin contacting surface; a heat sink having a first temperature different from the temperature of the skin being contacted by the skin contacting surface to create a temperature gradient between the skin and the heat sink; a thermoelectric device that includes a first surface that is the skin contacting surface and a second surface, positioned away from the skin contacting surface; a flow path configured to allow heat to flow between the skin and the heat sink, wherein the flow path facilitates the transfer of heat between the heat sink and the second surface of thermoelectric device ; an adhesive layer configured to overlie the thermoelectric device to secure the thermoelectric device to the skin; a power source operable to cause the thermoelectric device to transfer heat between the first surface of the thermoelectric device and the second surface of the thermoelectric device ; and a pressure sensor for determining the pressure applied to the surface of the skin. a skin contacting surface; a heat sink having a first temperature different from the temperature of the skin being contacted by the skin contacting surface to create a temperature gradient between the skin and the heat sink; a thermoelectric device that includes a first surface that is the skin contacting surface and a second surface, positioned away from the skin contacting surface; a flow path configured to allow heat to flow between the skin and the heat sink, wherein the flow path facilitates the transfer of heat between the heat sink and the second surface of thermoelectric device ; an adhesive layer configured to overlie the thermoelectric device to secure the thermoelectric device to the skin; a power source operable to cause the thermoelectric device to transfer heat between the first surface of the thermoelectric device and the second surface of the thermoelectric device ; and a pressure sensor for determining the pressure applied to the surface of the skin.
A medical device comprising: a body having a proximal end with a proximal opening, the body defining a channel from the proximal opening to a distal opening configured to emit a fluid jet along a longitudinal axis of the body; the body further including a distal wall having an inner surface extending in a direction transverse to the longitudinal axis and facing the distal opening to receive the fluid jet, the body defining a space between the distal wall surface and the distal opening, the distal wall including a protrusion configured to engage tissue, wherein the protrusion provides a solid surface for the fluid jet to impact; wherein the distal opening is configured to emit the fluid jet at a pressure to pierce the tissue and characterized in that the pressure is at or below 17.2 bar (250 pounds per square inch), and the solid surface provided by the protrusion is convex or concave relative to the flow of the fluid jet. a body having a proximal end with a proximal opening, the body defining a channel from the proximal opening to a distal opening configured to emit a fluid jet along a longitudinal axis of the body; the body further including a distal wall having an inner surface extending in a direction transverse to the longitudinal axis and facing the distal opening to receive the fluid jet, the body defining a space between the distal wall surface and the distal opening, the distal wall including a protrusion configured to engage tissue, wherein the protrusion provides a solid surface for the fluid jet to impact; wherein the distal opening is configured to emit the fluid jet at a pressure to pierce the tissue and characterized in that the pressure is at or below 17.2 bar (250 pounds per square inch), and the solid surface provided by the protrusion is convex or concave relative to the flow of the fluid jet.
An elevator door system used in elevators for providing energy saving by means of an improved system that maintains a constant entrance distance between the building floor and the elevator cabin, and thus facilitates maintenance and repair operations, comprising: • a rail system that reduces the distance needed to be travelled for carrying the door panels thereon and thus for providing motion to the door panels, and allowing the movable rails to be retracted or extended within the door mechanism by reducing the distance thereof, and characterized in further comprising • a door skate system motion mechanism comprising a second pulley (6.3) located on said door skate system motion mechanism for transferring the incoming movement to the door skate system, and also comprising a first pulley (6.1) used for increasing the displacement distance of the support force stabilizer , and • the rail system having the same width length as with the elevator door entrance distance. • a rail system that reduces the distance needed to be travelled for carrying the door panels thereon and thus for providing motion to the door panels, and allowing the movable rails to be retracted or extended within the door mechanism by reducing the distance thereof, and characterized in further comprising • a door skate system motion mechanism comprising a second pulley (6.3) located on said door skate system motion mechanism for transferring the incoming movement to the door skate system, and also comprising a first pulley (6.1) used for increasing the displacement distance of the support force stabilizer , and • the rail system having the same width length as with the elevator door entrance distance.