mhurhangee/patent-ind-claim-en huggingface dataset:
A side water inlet valve comprising a water inlet body provided with a water inlet channel , and a water outlet pipe provided with a water outlet channel , wherein, an outer sleeve pipe in communication with the water outlet pipe is fixed at an end of the water outlet pipe , and the water inlet body is sleeve coupled in the outer sleeve pipe from an opening at one end of the outer sleeve pipe , such that the water inlet body and the outer sleeve pipe are sleeve coupled and engaged, and the water inlet body and the outer sleeve pipe are detachable, and a water flow channel is formed between the outer wall of the water inlet body and the inner wall of the outer sleeve pipe , through which the water inlet channel is in communication with the water outlet channel ; the side water inlet valve further comprises a water stop assembly capable of opening or closing the water inlet channel , wherein the water stop assembly includes a float that can move up and down along with the water level of the water tank, and the water inlet body is provided with a back-pressure chamber and a pressure relief opening in communication with the back-pressure chamber , and the float is, through a threaded rod , linked and engaged with a lifting rod movably arranged on the water inlet body and capable of opening and closing the pressure relief opening .
A device for detecting a chemical compound in a fluid comprising a chamber provided with an inlet orifice (B) for a flow of fluid (F) and a suction orifice for the flow of fluid having passed through the chamber, and containing several sensors (C1-C4, C'1-C'2, 5) of the piezoelectric microbalance type each delimited by two main faces (5.1, 5.2) and an edge (5.3) and each carried by a wall of the chamber (2.1, 2.2), at least one of the main faces of each sensor being coated with a material sensitive to the compound to be detected, each sensor having a median plane on either side of which each of the main faces (5.1, 5.2) extends, in that each sensor is arranged in the chamber so that its median plane is locally orthogonal to the wall (2.1; 2.2) of the chamber which carries the sensor, in that the sensors are located at the same distance (δ) from the inlet orifice, in that: - the sensors (C1-C4) are arranged in a fan shape, the fan having a centre on the side of the inlet orifice , or - the sensors (C1'-C4') have their main faces parallel, or - the chamber is in the form of a cylindrical tube of revolution with an axis (XX'), the sensors being placed radially in the chamber, characterised in that the chamber further contains a deflector for the flow of fluid placed downstream of the sensors (C1 to C4), between the sensors (C1 to C4) and the suction orifice . - the sensors (C1-C4) are arranged in a fan shape, the fan having a centre on the side of the inlet orifice , or - the sensors (C1'-C4') have their main faces parallel, or - the chamber is in the form of a cylindrical tube of revolution with an axis (XX'), the sensors being placed radially in the chamber, characterised in that the chamber further contains a deflector for the flow of fluid placed downstream of the sensors (C1 to C4), between the sensors (C1 to C4) and the suction orifice .
A method, comprising: detecting , by an apparatus, at least one content notification message indicating contents of each of a plurality of messages frequency-multiplexed with a discovery message to parallel sub-channels of a channel in a bi-directional wireless network, wherein the discovery message is different from the at least one content notification message and comprises a narrowband indicator indicating transmission timing reserved for a narrowband transmission on the channel, and the plurality of messages and the discovery message are present simultaneously on the parallel sub-channels; selecting , autonomously by the apparatus, a sub-channel on the basis of the detected content notification message ; and receiving, by the apparatus, a message from the selected sub-channel. detecting , by an apparatus, at least one content notification message indicating contents of each of a plurality of messages frequency-multiplexed with a discovery message to parallel sub-channels of a channel in a bi-directional wireless network, wherein the discovery message is different from the at least one content notification message and comprises a narrowband indicator indicating transmission timing reserved for a narrowband transmission on the channel, and the plurality of messages and the discovery message are present simultaneously on the parallel sub-channels; selecting , autonomously by the apparatus, a sub-channel on the basis of the detected content notification message ; and receiving, by the apparatus, a message from the selected sub-channel.
A system for performing robotically-assisted surgery, comprising: an x-ray imaging device comprising an x-ray source and an x-ray detector mounted to a support structure such that at least one of the x-ray source and the x-ray detector is configured to rotate with respect to the support structure to obtain x-ray images from different projection angles relative to an object being imaged; and a robotic arm having a first end configured to extend into an imaging area between the source and the detector and a second end attached to the support structure; wherein the at least one of the x-ray source and the x-ray detector is configured to translate in at least one direction with respect to a first portion of the support structure, and the second end of the robotic arm is attached to a second portion of the support structure that translates with the at least one of the x-ray source and the x-ray detector relative to the first portion of the support structure. an x-ray imaging device comprising an x-ray source and an x-ray detector mounted to a support structure such that at least one of the x-ray source and the x-ray detector is configured to rotate with respect to the support structure to obtain x-ray images from different projection angles relative to an object being imaged; and a robotic arm having a first end configured to extend into an imaging area between the source and the detector and a second end attached to the support structure; wherein the at least one of the x-ray source and the x-ray detector is configured to translate in at least one direction with respect to a first portion of the support structure, and the second end of the robotic arm is attached to a second portion of the support structure that translates with the at least one of the x-ray source and the x-ray detector relative to the first portion of the support structure.
A system for extraction of a pool cleaning robot from a pool, the system comprises: a base for receiving the pool cleaning robot; an interfacing device , wherein the interfacing device comprises an interfacing device portion that extends beyond and below the base during a part of the extraction of the pool cleaning robot from the pool; wherein the system is characterized by comprising: 2. a motorized winding and unwinding mechanism that comprises a motor, a shaft and a pool cleaner electrical power cable winding drum; wherein the motorized winding and unwinding mechanism is configured to rotate the shaft thereby winding and unwinding, by the pool cleaner electrical power cable winding drum, the power cable of the pool cleaning robot during a part of the extraction of the pool cleaning robot from the pool. a base for receiving the pool cleaning robot; an interfacing device , wherein the interfacing device comprises an interfacing device portion that extends beyond and below the base during a part of the extraction of the pool cleaning robot from the pool; wherein the system is characterized by comprising: 2. a motorized winding and unwinding mechanism that comprises a motor, a shaft and a pool cleaner electrical power cable winding drum; wherein the motorized winding and unwinding mechanism is configured to rotate the shaft thereby winding and unwinding, by the pool cleaner electrical power cable winding drum, the power cable of the pool cleaning robot during a part of the extraction of the pool cleaning robot from the pool.
A method for firing a copper paste, the method comprising: an application step of applying a copper paste comprising copper particles, a binder resin and a solvent to a substrate; after the application step, a first heating step of heating the substrate in a nitrogen gas atmosphere containing 500 ppm or more and 2000 ppm or less of oxidizing gas in a volume ratio, and oxidizing and sintering copper particles in the copper paste at 350°C or more and 500°C or less; and after the first heating step, a second heating step of heating the substrate in a nitrogen gas atmosphere containing 1% or more reducing gas in a volume ratio, and reducing the oxidized and sintered copper oxide, wherein the first and second heating steps maintain the gas atmosphere by continuously flowing a gas in a firing furnace at 0.05 liter/min or more and 0.5 liter/min or less with respect to a volume of the firing furnace, 1 × 10 -6 m 3 , and wherein mass percent of the binder resin in an organic vehicle contained in the copper paste is more than 0.05% and less than 17.0%. an application step of applying a copper paste comprising copper particles, a binder resin and a solvent to a substrate; after the application step, a first heating step of heating the substrate in a nitrogen gas atmosphere containing 500 ppm or more and 2000 ppm or less of oxidizing gas in a volume ratio, and oxidizing and sintering copper particles in the copper paste at 350°C or more and 500°C or less; and after the first heating step, a second heating step of heating the substrate in a nitrogen gas atmosphere containing 1% or more reducing gas in a volume ratio, and reducing the oxidized and sintered copper oxide, wherein the first and second heating steps maintain the gas atmosphere by continuously flowing a gas in a firing furnace at 0.05 liter/min or more and 0.5 liter/min or less with respect to a volume of the firing furnace, 1 × 10 -6 m 3 , and wherein mass percent of the binder resin in an organic vehicle contained in the copper paste is more than 0.05% and less than 17.0%.
A system for implanting a prosthesis in a pedicle of a vertebra, comprising: a fastener comprising a first end, and a second end for insertion into the pedicle; a reamer comprising a replaceable reamer tip that engages the first end of the fastener , wherein the reamer tip is removably connected to an outer sleeve and comprises a first cutting portion and a second cutting portion that is proximally adjacent the first cutting portion , wherein the first cutting portion cuts a hole of a first diameter and the second cutting portion cuts a hole of a second diameter that is larger than the first diameter; and a base broach comprising a broach tip that is a replaceable broach tip and that is removably connected to the sleeve , wherein the broach comprises a broach tip having a body provided with a plurality of fins with cutting features for cutting a plurality of slots in the pedicle around the fastener and is aligned with a length of the fastener. a fastener comprising a first end, and a second end for insertion into the pedicle; a reamer comprising a replaceable reamer tip that engages the first end of the fastener , wherein the reamer tip is removably connected to an outer sleeve and comprises a first cutting portion and a second cutting portion that is proximally adjacent the first cutting portion , wherein the first cutting portion cuts a hole of a first diameter and the second cutting portion cuts a hole of a second diameter that is larger than the first diameter; and a base broach comprising a broach tip that is a replaceable broach tip and that is removably connected to the sleeve , wherein the broach comprises a broach tip having a body provided with a plurality of fins with cutting features for cutting a plurality of slots in the pedicle around the fastener and is aligned with a length of the fastener.
An extractor comprising: a base movable along a surface to be cleaned; a liquid distribution system including a supply tank and a distributor in fluid communication to deliver solution to the surface; a liquid recovery system including a suction nozzle and a suction source in fluid communication with the suction nozzle , the suction source including a suction motor configured to generate an airflow through the suction nozzle ; an encoder operable to generate a signal based on user-initiated movement of the base along the surface; and a controller operatively connected to the encoder , the liquid distribution system, and the liquid recovery system, the controller being configured to operate in a distributing mode during movement of the base and in a non-distributing mode during movement of the base based on the signal during operation of the extractor , wherein the airflow through the suction nozzle is increased or decreased in response to the signal, wherein the signal is indicative of one or more attributes selected from a group consisting of movement in a forward direction, movement in a reverse direction, and speed of movement. a base movable along a surface to be cleaned; a liquid distribution system including a supply tank and a distributor in fluid communication to deliver solution to the surface; a liquid recovery system including a suction nozzle and a suction source in fluid communication with the suction nozzle , the suction source including a suction motor configured to generate an airflow through the suction nozzle ; an encoder operable to generate a signal based on user-initiated movement of the base along the surface; and a controller operatively connected to the encoder , the liquid distribution system, and the liquid recovery system, the controller being configured to operate in a distributing mode during movement of the base and in a non-distributing mode during movement of the base based on the signal during operation of the extractor , wherein the airflow through the suction nozzle is increased or decreased in response to the signal, wherein the signal is indicative of one or more attributes selected from a group consisting of movement in a forward direction, movement in a reverse direction, and speed of movement.
A terminal comprising: a receiving section configured to receive a first downlink control information, DCI, scheduling a first Physical Uplink Shared channel, PUSCH, of a first cell (CC1); a control section configured to perform, in a case where the receiving section further receives, after the first DCI, a second DCI scheduling a second PUSCH of a second cell (CC2) and wherein the second PUSCH overlaps the first PUSCH, a control in which only the first PUSCH among the first PUSCH and the second PUSCH is considered in a calculation of a power headroom report, PHR, in the first PUSCH and in which it is assumed that the second PUSCH is not present for the calculation of the PHR; and a transmission section configured to transmit the PHR in the first PUSCH, wherein a transmission duration of the first PUSCH is longer than a transmission duration of the second PUSCH. a receiving section configured to receive a first downlink control information, DCI, scheduling a first Physical Uplink Shared channel, PUSCH, of a first cell (CC1); a control section configured to perform, in a case where the receiving section further receives, after the first DCI, a second DCI scheduling a second PUSCH of a second cell (CC2) and wherein the second PUSCH overlaps the first PUSCH, a control in which only the first PUSCH among the first PUSCH and the second PUSCH is considered in a calculation of a power headroom report, PHR, in the first PUSCH and in which it is assumed that the second PUSCH is not present for the calculation of the PHR; and a transmission section configured to transmit the PHR in the first PUSCH, wherein a transmission duration of the first PUSCH is longer than a transmission duration of the second PUSCH.
A method of dewatering material containing moisture by means of pressure and heat using a device comprising a) a system for the dosed delivery of the material , b) a transfer section (C), into which the material can be transferred from a transporting device or directly into a double-belt press , and c) a double-belt press with - a lower press section and an upper press section , - steel press belts circulating continuously in the direction of rotation in the lower press section and in the upper press section , - at least one heatable heating plate in both the upper press section and in the lower press section and - at least one actuator in the lower press section and/or the upper press section with which pressure is can be exerted on the material via at least one heating plate and one steel press belt , characterised in that in a first heating section (A) of the double-belt press in the direction of conveying, with pressures on the material of under 4 MPa and heating plate temperatures of above 160 °C, the material is heated to at least 130 °C and at least in a second dewatering section (B) of the double-belt press , it is dewatered with pressures on the material of above 4 MPa. a) a system for the dosed delivery of the material , b) a transfer section (C), into which the material can be transferred from a transporting device or directly into a double-belt press , and c) a double-belt press with - a lower press section and an upper press section , - steel press belts circulating continuously in the direction of rotation in the lower press section and in the upper press section , - at least one heatable heating plate in both the upper press section and in the lower press section and - at least one actuator in the lower press section and/or the upper press section with which pressure is can be exerted on the material via at least one heating plate and one steel press belt , characterised in that in a first heating section (A) of the double-belt press in the direction of conveying, with pressures on the material of under 4 MPa and heating plate temperatures of above 160 °C, the material is heated to at least 130 °C and at least in a second dewatering section (B) of the double-belt press , it is dewatered with pressures on the material of above 4 MPa. - a lower press section and an upper press section , - steel press belts circulating continuously in the direction of rotation in the lower press section and in the upper press section , - at least one heatable heating plate in both the upper press section and in the lower press section and - at least one actuator in the lower press section and/or the upper press section with which pressure is can be exerted on the material via at least one heating plate and one steel press belt , characterised in that in a first heating section (A) of the double-belt press in the direction of conveying, with pressures on the material of under 4 MPa and heating plate temperatures of above 160 °C, the material is heated to at least 130 °C and at least in a second dewatering section (B) of the double-belt press , it is dewatered with pressures on the material of above 4 MPa.
A transient flow method for determining gas permeability of a subsurface formation, comprising: acquiring a sample of the subsurface formation; positioning the sample in a pressure vessel comprising a fluid and a pressure gauge; equilibrating the sample at a predetermined first pore gas pressure, p i ; applying a predetermined constant second pore gas pressure, p o , to an inlet of the sample, the second pore gas pressure being greater than the first pore gas pressure, characterised by measuring a third pore gas pressure, p, as a function of time, t, at a location, x, along the axis of the sample in the pressure vessel, wherein the location, x , is at a predetermined distance from the inlet of the sample, excluding the two ends of the sample; in a computer, determining a gas density or total gas mass per unit volume of the subsurface formation, m ; and in the computer, determining the gas permeability of the subsurface formation as a function of pore pressure, k(p), based at least in part on the first pore gas pressure, the second pore gas pressure, the third pore gas pressure as a function of time, and the gas density as a function of pore pressure. acquiring a sample of the subsurface formation; positioning the sample in a pressure vessel comprising a fluid and a pressure gauge; equilibrating the sample at a predetermined first pore gas pressure, p i ; applying a predetermined constant second pore gas pressure, p o , to an inlet of the sample, the second pore gas pressure being greater than the first pore gas pressure, characterised by measuring a third pore gas pressure, p, as a function of time, t, at a location, x, along the axis of the sample in the pressure vessel, wherein the location, x , is at a predetermined distance from the inlet of the sample, excluding the two ends of the sample; in a computer, determining a gas density or total gas mass per unit volume of the subsurface formation, m ; and in the computer, determining the gas permeability of the subsurface formation as a function of pore pressure, k(p), based at least in part on the first pore gas pressure, the second pore gas pressure, the third pore gas pressure as a function of time, and the gas density as a function of pore pressure.
An in-wall frame for sliding doors, of the type comprising a framework enclosed in a casing , said in-wall frame comprising: - two opposite end posts, respectively a first one and a second one , - a main crossmember , which extends between the upper ends of said two end posts , - two mutually opposite intermediate posts , in a position that is substantially central between said two end posts , - one or more pairs of secondary crossmembers , each comprised between one of said end posts and one of said intermediate posts , each of the secondary cross-members having a main profile and a secondary profile , wherein the secondary profile extends from the main profile so as to be telescopic with the main profile , wherein said main crossmember and said secondary crossmembers have a length that can be modified, said in-wall frame being characterized in that the secondary profile is shaped as the corresponding main profile , in that said end posts and said intermediate posts have a length that can be modified and in that the first end post comprises a main profile and a secondary profile for elongation of the first end post wherein the secondary profile has a same contour as the main profile and comprises two tubular bodies each having quadrangular cross-sections. - two opposite end posts, respectively a first one and a second one , - a main crossmember , which extends between the upper ends of said two end posts , - two mutually opposite intermediate posts , in a position that is substantially central between said two end posts , - one or more pairs of secondary crossmembers , each comprised between one of said end posts and one of said intermediate posts , each of the secondary cross-members having a main profile and a secondary profile , wherein the secondary profile extends from the main profile so as to be telescopic with the main profile , wherein said main crossmember and said secondary crossmembers have a length that can be modified,