mhurhangee/patent-ind-claim-en huggingface dataset:
A device (10; 50) for adjusting an internal pressure in a hollow sealing body , comprising: a tracheal tube having a distal section configured to deliver ventila - tion air into a trachea of a patient; a hollow sealing body which is associated with the distal section of the tracheal tube for delivering ventilation air into a trachea of a pa - tient, an operating device having a manipulation member (22; 72) which can be operated manually by an operator for manual adjustment of the internal pressure in the hollow sealing body , a control unit (70; 100) which is designed to determine in automated man - ner a target value for the internal pressure in the hollow sealing body on the basis of detected values of parameters, wherein the operating device has a first haptic feedback unit associated therewith, which is designed to generate a first haptic feedback that is de - termined on the basis of a deviation between the value of the internal pres - sure in the hollow sealing body currently set by manual operation of the ma - nipulation member and the target value of the internal pressure in the hollow sealing body determined by the control unit (70; 100). a tracheal tube having a distal section configured to deliver ventila - tion air into a trachea of a patient; a hollow sealing body which is associated with the distal section of the tracheal tube for delivering ventilation air into a trachea of a pa - tient, an operating device having a manipulation member (22; 72) which can be operated manually by an operator for manual adjustment of the internal pressure in the hollow sealing body , a control unit (70; 100) which is designed to determine in automated man - ner a target value for the internal pressure in the hollow sealing body on the basis of detected values of parameters, wherein the operating device has a first haptic feedback unit associated therewith, which is designed to generate a first haptic feedback that is de - termined on the basis of a deviation between the value of the internal pres - sure in the hollow sealing body currently set by manual operation of the ma - nipulation member and the target value of the internal pressure in the hollow sealing body determined by the control unit (70; 100).
Drive assembly for a vehicle, having an electric machine having a rotor shaft and a layshaft , wherein the rotor shaft and the layshaft are coupled to each other by way of a transmission , and the layshaft is able to be driven, or is driven, by the rotor shaft , wherein the transmission between the rotor shaft and the layshaft is configured as a pinion-to-gear wheel connection, characterized in that a rotating speed sensor system for ascertaining the rotating speed of the rotor shaft is disposed on the layshaft and detects the rotating speed of the layshaft .
A method for detecting biliary tract cancer by the amounts of APOA2 protein variants in a blood sample from a test subject, the method comprising: (A) a first step of measuring the amount of the APOA2-ATQ protein in the sample by using an anti-APOA2-ATQ terminus antibody which specifically binds to the C-terminal region of the APOA2-ATQ protein consisting of the amino acid sequence represented by SEQ ID NO: 1, and an anti-APOA2-ATQ non-terminus antibody which binds to the amino acid sequence excluding said C-terminal region; (B) a second step of measuring the amount of the APOA2-AT protein in the sample by using an anti-APOA2-AT terminus antibody which specifically binds to the C-terminal region of the APOA2-AT protein consisting of the amino acid sequence represented by SEQ ID NO: 2, and an anti-APOA2-AT non-terminus antibody which binds to the amino acid sequence excluding said C-terminal region; and (C) a third step of determining that the test subject is affected with biliary tract cancer when the discriminant value is statistically significantly different compared to the discriminant value of a normal subject, wherein a discriminant value is obtained by inputting the amount of the APOA2-ATQ protein obtained in the first step and the amount of the APOA2-AT protein obtained in the second step into a prescribed discriminant function. (A) a first step of measuring the amount of the APOA2-ATQ protein in the sample by using an anti-APOA2-ATQ terminus antibody which specifically binds to the C-terminal region of the APOA2-ATQ protein consisting of the amino acid sequence represented by SEQ ID NO: 1, and an anti-APOA2-ATQ non-terminus antibody which binds to the amino acid sequence excluding said C-terminal region; an anti-APOA2-ATQ terminus antibody which specifically binds to the C-terminal region of the APOA2-ATQ protein consisting of the amino acid sequence represented by SEQ ID NO: 1, and an anti-APOA2-ATQ non-terminus antibody which binds to the amino acid sequence excluding said C-terminal region; (B) a second step of measuring the amount of the APOA2-AT protein in the sample by using an anti-APOA2-AT terminus antibody which specifically binds to the C-terminal region of the APOA2-AT protein consisting of the amino acid sequence represented by SEQ ID NO: 2, and an anti-APOA2-AT non-terminus antibody which binds to the amino acid sequence excluding said C-terminal region; and an anti-APOA2-AT terminus antibody which specifically binds to the C-terminal region of the APOA2-AT protein consisting of the amino acid sequence represented by SEQ ID NO: 2, and an anti-APOA2-AT non-terminus antibody which binds to the amino acid sequence excluding said C-terminal region; and (C) a third step of determining that the test subject is affected with biliary tract cancer when the discriminant value is statistically significantly different compared to the discriminant value of a normal subject, wherein a discriminant value is obtained by inputting the amount of the APOA2-ATQ protein obtained in the first step and the amount of the APOA2-AT protein obtained in the second step into a prescribed discriminant function.
Luminous device (2; 102), in particular for a motor vehicle, comprising: - a light source (4; 104) able to emit light rays; - a collector (6; 106) with a reflective surface (6.2; 106.2) configured to collect and reflect the light rays emitted by the light source (4; 104); - an optical system (10; 110) configured to project the light rays coming from the reflective surface (6.2; 106.2) into a light beam (12; 112) along an optical axis of the luminous device (8; 108); the luminous device (2; 102) comprising a mirror (7; 107) configured to form a virtual image ( 4, 6.2; 104, 106.2 ) of the light source and of the reflective surface of the collector (6; 106), and the optical system (10; 110) being configured to form an image of said virtual image ( 4, 6.2; 104, 106.2 ) characterized in that the optical system (10; 110) has a focal point (10.3; 110.3) located in a region located between the virtual image ( 4; 104 ) of the light source (4; 104) and the virtual image ( 6.2 ; 106.2) of the reflective surface (6.2; 106.2). - a light source (4; 104) able to emit light rays; - a collector (6; 106) with a reflective surface (6.2; 106.2) configured to collect and reflect the light rays emitted by the light source (4; 104); - an optical system (10; 110) configured to project the light rays coming from the reflective surface (6.2; 106.2) into a light beam (12; 112) along an optical axis of the luminous device (8; 108);
A system for analyzing a diametrical deformation of a tube , comprising a sensor for following the deformation of the tube , characterized in that it further comprises a deformation limiter to delimit at an area of the tube in line with the sensor the extent of an additional deformation of the tube beyond a nominal deformation.
A security system comprising: a sensor configured to detect a distance to an object along a direction in an area by the sensor scanning the area by emitting energy in the direction and detecting reflection of that energy back to the sensor to measure the distance to the object along the certain direction, wherein the object is one of a door , window , or locker; an alarm panel in communication with the sensor ; at least one of the sensor and the alarm panel configured to determine a state of the object in response to the distance to the object along the direction; wherein at least one of the sensor and the alarm panel stores provisioning data for each object in the area ; and the provisioning data includes an object identifier, a distance to the object, a direction to the object and state data for the object. a sensor configured to detect a distance to an object along a direction in an area by the sensor scanning the area by emitting energy in the direction and detecting reflection of that energy back to the sensor to measure the distance to the object along the certain direction, wherein the object is one of a door , window , or locker; an alarm panel in communication with the sensor ; at least one of the sensor and the alarm panel configured to determine a state of the object in response to the distance to the object along the direction; wherein at least one of the sensor and the alarm panel stores provisioning data for each object in the area ; and the provisioning data includes an object identifier, a distance to the object, a direction to the object and state data for the object.
A nail gun , comprising: a housing formed with an accommodating space ; a cylinder assembly at least partially disposed in the housing; a magazine assembly storing nails; and a firing assembly for striking a nail and at least partially disposed in the cylinder assembly; wherein the cylinder assembly comprises a first cylinder and a second cylinder ; wherein the first cylinder comprises a first cylinder cavity extending along a direction of a first axis , and at least part of the second cylinder is disposed in the first cylinder cavity; and the nail gun further comprises a first piston , wherein at least part of the first piston is disposed in the first cylinder cavity, and the first piston is capable of reciprocating along the direction of the first axis in the first cylinder cavity; characterized in that the first piston is configured to be capable of forming an air intake passage with part of an outer wall of the second cylinder, and a gas is capable of passing through the air intake passage and entering the first cylinder cavity. a housing formed with an accommodating space ; a cylinder assembly at least partially disposed in the housing; a magazine assembly storing nails; and a firing assembly for striking a nail and at least partially disposed in the cylinder assembly; wherein the cylinder assembly comprises a first cylinder and a second cylinder ; wherein the first cylinder comprises a first cylinder cavity extending along a direction of a first axis , and at least part of the second cylinder is disposed in the first cylinder cavity; and the nail gun further comprises a first piston , wherein at least part of the first piston is disposed in the first cylinder cavity, and the first piston is capable of reciprocating along the direction of the first axis in the first cylinder cavity; characterized in that the first piston is configured to be capable of forming an air intake passage with part of an outer wall of the second cylinder, and a gas is capable of passing through the air intake passage and entering the first cylinder cavity.
A pumped heat energy storage system comprising: a hot thermal storage apparatus , and a charging turbomachinery and/or a discharging turbomachinery , characterized by : an annular ducting arrangement having an inner duct and an annular duct coaxially disposed about the inner duct , wherein the inner duct is arranged to transmit a high-temperature, high-pressure flow of a working fluid while the annular duct is arranged to transmit a lower-temperature, high-pressure flow of the working fluid, wherein the annular ducting arrangement is arranged at a selected location of a path to transmit the high-temperature, high-pressure flow of working fluid and the lower-temperature, high-pressure flow of working fluid between the hot thermal storage apparatus and the charging turbomachinery and/or the discharging turbomachinery . a hot thermal storage apparatus , and a charging turbomachinery and/or a discharging turbomachinery , characterized by : an annular ducting arrangement having an inner duct and an annular duct coaxially disposed about the inner duct , wherein the inner duct is arranged to transmit a high-temperature, high-pressure flow of a working fluid while the annular duct is arranged to transmit a lower-temperature, high-pressure flow of the working fluid, wherein the annular ducting arrangement is arranged at a selected location of a path to transmit the high-temperature, high-pressure flow of working fluid and the lower-temperature, high-pressure flow of working fluid between the hot thermal storage apparatus and the charging turbomachinery and/or the discharging turbomachinery . an annular ducting arrangement having an inner duct and an annular duct coaxially disposed about the inner duct , wherein the inner duct is arranged to transmit a high-temperature, high-pressure flow of a working fluid while the annular duct is arranged to transmit a lower-temperature, high-pressure flow of the working fluid, wherein the annular ducting arrangement is arranged at a selected location of a path to transmit the high-temperature, high-pressure flow of working fluid and the lower-temperature, high-pressure flow of working fluid between the hot thermal storage apparatus and the charging turbomachinery and/or the discharging turbomachinery .
Diaphragm seal designed to transmit the pressure of a process medium, said diaphragm seal comprising: a meter body , which has a surface ; and a process membrane which is attached to the surface , wherein a pressure chamber is formed between the process membrane and the surface, which communicates with a hydraulic path via an opening in the surface, wherein the process membrane can be exposed to a process medium from a first side of the process membrane , wherein the pressure chamber and the hydraulic path are filled with a transmission liquid for the purpose of transferring the pressure of the process medium; wherein the process membrane is a plate-shaped membrane with a circumferential edge and the plate-shaped membrane is connected in a pressure-tight manner to the surface of the meter body via a circumferential welding seam , preferably only one, and wherein the process membrane has a central area , wherein the diaphragm seal further comprises a temperature sensor for determining a temperature measured variable of the process medium, which is attached in a central area to a second side of the process membrane opposite the first side of the process membrane, characterized in that the meter body is connected to the process membrane in the central area in such a way that the transmission liquid does not come into contact with the temperature sensor . a meter body , which has a surface ; and a process membrane which is attached to the surface , wherein a pressure chamber is formed between the process membrane and the surface, which communicates with a hydraulic path via an opening in the surface, wherein the process membrane can be exposed to a process medium from a first side of the process membrane , wherein the pressure chamber and the hydraulic path are filled with a transmission liquid for the purpose of transferring the pressure of the process medium; wherein the process membrane is a plate-shaped membrane with a circumferential edge and the plate-shaped membrane is connected in a pressure-tight manner to the surface of the meter body via a circumferential welding seam , preferably only one, and wherein the process membrane has a central area , wherein the diaphragm seal further comprises a temperature sensor for determining a temperature measured variable of the process medium, which is attached in a central area to a second side of the process membrane opposite the first side of the process membrane, characterized in that the meter body is connected to the process membrane in the central area in such a way that the transmission liquid does not come into contact with the temperature sensor .
A powder composition comprising: a silica-infused crystalline polyester particle for laser sintering comprising at least one crystalline polyester resin and silica nanoparticles present in the particle in an amount ranging from 5% to 60% by weight relative to a total weight of the particle; wherein the crystalline polyester resin is an unsaturated crystalline polyester resin derived from at least one organic diacid and at least one polyol that is a mixture of 1,4-butanediol and 1,6-hexanediol. a silica-infused crystalline polyester particle for laser sintering comprising at least one crystalline polyester resin and silica nanoparticles present in the particle in an amount ranging from 5% to 60% by weight relative to a total weight of the particle; wherein the crystalline polyester resin is an unsaturated crystalline polyester resin derived from at least one organic diacid and at least one polyol that is a mixture of 1,4-butanediol and 1,6-hexanediol.
A fiber coupling device comprising: a housing ; and a window provided in the housing , wherein the fiber coupling device is configured to collectively guide a plurality of laser beams to at least a first fiber , the plurality of laser beams each being emitted from a corresponding one of a plurality of external laser light sources and entering through a laser beam inlet , wherein the housing is configured such that the plurality of laser beams enter the housing from the laser beam inlet , wherein the window is provided inside the housing and faces the laser beam inlet , wherein each of the plurality of external laser light sources cause a corresponding one of the plurality of laser beams to enter from the laser beam inlet and travel in an incident direction, wherein the window is located in the incident direction from the laser beam inlet , and wherein the fiber coupling device further comprises a first mirror that switches selectively between a first beam path (Lr1) through which the plurality of laser beams are guided to the first fiber and a second beam path (Lr2) through which the plurality of laser beams are guided to the window . a housing ; and a window provided in the housing , wherein the fiber coupling device is configured to collectively guide a plurality of laser beams to at least a first fiber , the plurality of laser beams each being emitted from a corresponding one of a plurality of external laser light sources and entering through a laser beam inlet , wherein the housing is configured such that the plurality of laser beams enter the housing from the laser beam inlet , wherein the window is provided inside the housing and faces the laser beam inlet , wherein each of the plurality of external laser light sources cause a corresponding one of the plurality of laser beams to enter from the laser beam inlet and travel in an incident direction, wherein the window is located in the incident direction from the laser beam inlet , and wherein the fiber coupling device further comprises a first mirror that switches selectively between a first beam path (Lr1) through which the plurality of laser beams are guided to the first fiber and a second beam path (Lr2) through which the plurality of laser beams are guided to the window . the window is provided inside the housing and faces the laser beam inlet , wherein each of the plurality of external laser light sources cause a corresponding one of the plurality of laser beams to enter from the laser beam inlet and travel in an incident direction, wherein the window is located in the incident direction from the laser beam inlet , and wherein the fiber coupling device further comprises a first mirror that switches selectively between a first beam path (Lr1) through which the plurality of laser beams are guided to the first fiber and a second beam path (Lr2) through which the plurality of laser beams are guided to the window .
A method for manufacturing a joined member (C) by joining a first member (D) formed of a metal material having a possibility of undergoing quenching and a second member (E) formed of a metal material, the method comprising: a contact-placing step (S1) of placing the first member (D) and the second member (E) with a joint target portion of the first member (D) and a joint target portion of the second member (E) being in contact with each other; a joining step (S2) of joining the first member (D) and the second member (E) by passing a pulsed welding electric current (A1) for joining through the joint target potions (J) of the first member (D) and the second member (E), wherein the first and second members (D, E) are solid-phase joined; a first tempering step (S3) of tempering a joint portion (F) by passing a first tempering electric current (A2) through the joint portion (F), the joint portion (F) being a portion where the first member (D) and the second member (E) are joined; and characterized by : a second tempering step (S4) of tempering the joint portion (F) by passing a second tempering electric current (A3) smaller than the first tempering electric current (A2) through the joint portion (F). a contact-placing step (S1) of placing the first member (D) and the second member (E) with a joint target portion of the first member (D) and a joint target portion of the second member (E) being in contact with each other; a joining step (S2) of joining the first member (D) and the second member (E) by passing a pulsed welding electric current (A1) for joining through the joint target potions (J) of the first member (D) and the second member (E), wherein the first and second members (D, E) are solid-phase joined; a first tempering step (S3) of tempering a joint portion (F) by passing a first tempering electric current (A2) through the joint portion (F), the joint portion (F) being a portion where the first member (D) and the second member (E) are joined; and characterized by : a second tempering step (S4) of tempering the joint portion (F) by passing a second tempering electric current (A3) smaller than the first tempering electric current (A2) through the joint portion (F).