mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a ventilation device in a vehicle , in which at least one air stream is generated in the passenger compartment of the vehicle , a value of at least one parameter of the inflowing air is recorded, graphic data of a display are generated in dependence on the value of the recorded parameter, wherein the display comprises a representation of the vehicle and at least one graphic element , which is assigned to the value of the recorded parameter, and the graphic data of the representation are displayed, wherein the recorded parameter concerns the composition of the inflowing air, wherein the display comprises at least one button and, if a selection of the button is recorded, the value of the parameter of the inflowing air is changed, characterized in that the graphic element comprises at least one region of the outer surface of the vehicle , wherein the graphic element follows the outer surface of the vehicle and the extent of the graphic element corresponds to a degree of coverage of the passenger compartment. at least one air stream is generated in the passenger compartment of the vehicle , a value of at least one parameter of the inflowing air is recorded, graphic data of a display are generated in dependence on the value of the recorded parameter, wherein the display comprises a representation of the vehicle and at least one graphic element , which is assigned to the value of the recorded parameter, and the graphic data of the representation are displayed, wherein the recorded parameter concerns the composition of the inflowing air, wherein the display comprises at least one button and, if a selection of the button is recorded, the value of the parameter of the inflowing air is changed, the recorded parameter concerns the composition of the inflowing air, wherein the display comprises at least one button and, if a selection of the button is recorded, the value of the parameter of the inflowing air is changed, characterized in that the graphic element comprises at least one region of the outer surface of the vehicle , wherein the graphic element follows the outer surface of the vehicle and the extent of the graphic element corresponds to a degree of coverage of the passenger compartment.
A method to identify placement on a subject's body of a transducer array to generate tumor treating fields in the subject's body, the method comprising: receiving image data of the subject's body and the transducer array to generate tumor treating fields in the subject's body; displaying an image having a representation of the subject, a representation of the transducer array , and a representation of a desired position of the transducer array , the displayed image being based on the received image data; and providing a visual notification in the displayed image when the transducer array is determined to be located at the desired position. receiving image data of the subject's body and the transducer array to generate tumor treating fields in the subject's body; displaying an image having a representation of the subject, a representation of the transducer array , and a representation of a desired position of the transducer array , the displayed image being based on the received image data; and providing a visual notification in the displayed image when the transducer array is determined to be located at the desired position.
Support for filtration membrane formed with a set of first projections and a set of second projections extending in opposite directions, where at least some of the first dimple shaped projections and/or second dimple shaped projections are shaped with top surface areas forming contact face towards the filtration membrane , wherein said top surface areas are flat top surface areas; wherein dimple shaped projections are projections formed with flanks at the full circumference of the top surface areas and characterised in that the only flat areas extending in the direction parallel to the extension of the filtration membrane are the top surface areas and wherein the first and second projections are arranged in a matrix pattern with a distance X1 between centres of the projections in adjacent rows and a distance X2 between their centres in adjacent columns, where their top surface areas have a circumference C and where C/X1 is in the range of 1,03-2,27.
An earth-boring drilling tool , comprising: a body including at least one blade having an aperture extending therethrough; an instrumented cutting element secured to the at least one blade , the instrumented cutting element comprising: a substrate base ; a diamond table disposed on the substrate base ; a sensor disposed within the diamond table , wherein the sensor is configured to obtain data relating to at least one parameter related to at least one of a diagnostic condition of the cutting element , a drilling condition, a wellbore condition, a formation condition, or a condition of the earth-boring drilling tool ; and a lead wire coupled to the sensor ; and a conduit system secured to the at least one blade such that the lead wire is received by the conduit system through the aperture of the at least one blade and extends back into an upper portion of the body to a data collection module , characterized in that : the conduit system includes multiple sections coupled together outside of the at least one blade , and the lead wire includes multiple sections detachably coupled together by connectors . a body including at least one blade having an aperture extending therethrough; an instrumented cutting element secured to the at least one blade , the instrumented cutting element comprising: a substrate base ; a diamond table disposed on the substrate base ; a sensor disposed within the diamond table , wherein the sensor is configured to obtain data relating to at least one parameter related to at least one of a diagnostic condition of the cutting element , a drilling condition, a wellbore condition, a formation condition, or a condition of the earth-boring drilling tool ; and a lead wire coupled to the sensor ; and a substrate base ; a diamond table disposed on the substrate base ; a sensor disposed within the diamond table , wherein the sensor is configured to obtain data relating to at least one parameter related to at least one of a diagnostic condition of the cutting element , a drilling condition, a wellbore condition, a formation condition, or a condition of the earth-boring drilling tool ; and a lead wire coupled to the sensor ; and a conduit system secured to the at least one blade such that the lead wire is received by the conduit system through the aperture of the at least one blade and extends back into an upper portion of the body to a data collection module , characterized in that : the conduit system includes multiple sections coupled together outside of the at least one blade , and the lead wire includes multiple sections detachably coupled together by connectors .
An implant screw for an implant, particularly for a dental implant , with a ceramic head part and with a non-ceramic base thread (111, 111', 111", 211, 311) that can be screwed into a base body of a dental implant , wherein the head part is provided with a recess in which at least in sections a connector (1, 1', 1", 2, 3) is received, on which the base thread (111, 111', 111", 211, 311) is formed, wherein a front side , connected to the head part , points in the direction of the base thread (111, 111', 111", 211, 311), characterized by , at least one tooth , formed on the front side , on which a tooth tip , pointing away from the front side, is formed. with a ceramic head part and with a non-ceramic base thread (111, 111', 111", 211, 311) that can be screwed into a base body of a dental implant , wherein the head part is provided with a recess in which at least in sections a connector (1, 1', 1", 2, 3) is received, on which the base thread (111, 111', 111", 211, 311) is formed, wherein a front side , connected to the head part , points in the direction of the base thread (111, 111', 111", 211, 311), characterized by , at least one tooth , formed on the front side , on which a tooth tip , pointing away from the front side, is formed.
A computer program comprising instructions which, when the program is executed by a computer in an information processing apparatus , cause the computer to cause a display unit to display a setting screen capable of accepting a user instruction, and accept (S803, S901), on the setting screen, selection of either of a first printing mode and a second printing mode, wherein the first printing mode is a printing mode for causing a printing apparatus to execute four-side borderless printing that makes no margins on both ends in a widthwise direction of a roll-like recording medium and makes, by cutting the roll-like recording medium, no margin on both ends in a lengthwise direction of the cut roll-like recording medium; wherein the second printing mode is a printing mode for causing the printing apparatus to execute three-side borderless printing that makes a margin on one end in the widthwise direction of the roll-like recording medium and no margin on the other end and makes, by cutting the roll-like recording medium, no margin on both ends in the lengthwise direction of the cut roll-like recording medium; and if the selection of the first printing mode is accepted, the setting screen is displayed such that a user is not able to designate a first size as a size of an output recording medium that is one of print settings in the first printing mode, and if the selection of the second printing mode is accepted, the setting screen is displayed such that the user is able to designate the first size as the size of the output recording medium in the second printing mode. cause a display unit to display a setting screen capable of accepting a user instruction, and accept (S803, S901), on the setting screen, selection of either of a first printing mode and a second printing mode, wherein the first printing mode is a printing mode for causing a printing apparatus to execute four-side borderless printing that makes no margins on both ends in a widthwise direction of a roll-like recording medium and makes, by cutting the roll-like recording medium, no margin on both ends in a lengthwise direction of the cut roll-like recording medium; wherein the second printing mode is a printing mode for causing the printing apparatus to execute three-side borderless printing that makes a margin on one end in the widthwise direction of the roll-like recording medium and no margin on the other end and makes, by cutting the roll-like recording medium, no margin on both ends in the lengthwise direction of the cut roll-like recording medium; and if the selection of the first printing mode is accepted, the setting screen is displayed such that a user is not able to designate a first size as a size of an output recording medium that is one of print settings in the first printing mode, and if the selection of the second printing mode is accepted, the setting screen is displayed such that the user is able to designate the first size as the size of the output recording medium in the second printing mode.
An air spring (100; 200; 300) comprising: a first end member (206; 304); a second end member (208; 305) spaced apart from the first end member (206; 304); a spring wall (102; 202; 302) extending between the first (206; 304) and second (208; 305) end members, the spring wall (102; 202; 302) at least partially defining a gas filled spring chamber (210; 310) disposed between the first and second end members (206, 208; 304, 305), the spring wall (102; 202; 302) including an elastomeric body (203; 303); and a sensor layer disposed within the elastomeric body (203; 303) of the spring wall (102; 202; 302) and including a plurality of sensors each capable of providing wireless signal data related to one or more physical properties of the air spring, characterized in that the one or more physical properties of the air spring (100; 200; 300) include one or more of temperature, air pressure, stress, strain, shear, vibration and chemistry; and each of the plurality of sensors has a size no larger than 20 μm to avoid becoming an occlusion in the elastomeric body (203; 303). a first end member (206; 304); a second end member (208; 305) spaced apart from the first end member (206; 304); a spring wall (102; 202; 302) extending between the first (206; 304) and second (208; 305) end members, the spring wall (102; 202; 302) at least partially defining a gas filled spring chamber (210; 310) disposed between the first and second end members (206, 208; 304, 305), the spring wall (102; 202; 302) including an elastomeric body (203; 303); and a sensor layer disposed within the elastomeric body (203; 303) of the spring wall (102; 202; 302) and including a plurality of sensors each capable of providing wireless signal data related to one or more physical properties of the air spring, characterized in that the one or more physical properties of the air spring (100; 200; 300) include one or more of temperature, air pressure, stress, strain, shear, vibration and chemistry; and each of the plurality of sensors has a size no larger than 20 μm to avoid becoming an occlusion in the elastomeric body (203; 303).
Valve made up of a rigid nozzle having at its centre a stem of axis xx', and of a flap , characterized in that : - said flap is in one piece and has a flexible wall situated facing a free end of the stem , - the flexible wall is perforated by an orifice that is concentric with the end of the stem , - the orifice has a contour that is substantially homothetic with the contour of the end of the stem in a plane (P) perpendicular to the axis xx' of the stem, - the orifice has an area smaller than a projected area of the end of the stem in the plane (P), - the flap is connected to the nozzle by a non-deformable fixed connection, - the flexible wall presses against the end of the stem at all points of its surface in contact with said end , - said pressing is obtained by elastic deformation of said flexible wall , said deformation resulting from the assembly of the flap and the nozzle , - the valve is in a closed position when the flexible wall is in contact with the end of the stem around the entire perimeter of the orifice, and in an open position when the flexible wall is away from the end of the stem around at least a part of the perimeter of the orifice, - the opening and closing are obtained by the complementary deformation and the movement of the flexible wall along the axis xx' - said flap is in one piece and has a flexible wall situated facing a free end of the stem , - the flexible wall is perforated by an orifice that is concentric with the end of the stem , - the orifice has a contour that is substantially homothetic with the contour of the end of the stem in a plane (P) perpendicular to the axis xx' of the stem, - the orifice has an area smaller than a projected area of the end of the stem in the plane (P), - the flap is connected to the nozzle by a non-deformable fixed connection, - the flexible wall presses against the end of the stem at all points of its surface in contact with said end , - said pressing is obtained by elastic deformation of said flexible wall , said deformation resulting from the assembly of the flap and the nozzle , - the valve is in a closed position when the flexible wall is in contact with the end of the stem around the entire perimeter of the orifice, and in an open position when the flexible wall is away from the end of the stem around at least a part of the perimeter of the orifice, - the opening and closing are obtained by the complementary deformation and the movement of the flexible wall along the axis xx'
Apparatus at least comprising - a first contact partner (CP1) which has ∘ a first metal contact surface (112.1; 115.1), - a second contact partner (CP2) which has a second metal contact surface (113.1), wherein - a 3-dimensional injection molded layer , which comprises a synthetic injection-moldable material, serves as second contact partner (CP2), - a plurality of deformable microstructures (C1.i) being situated between said first contact partner (CP1) and said second contact partner (CP2), and wherein said deformable microstructures (C1.i) are serving as electric pressure contacts which electrically connect said first metal contact surface (112.1) and said second metal contact surface (113.1) after having assembled said first contact partner (CP1) and said second contact partner (CP2), and wherein said apparatus comprises an electrically isolating bonding agent , preferably an electrically isolating bonding agent comprising a polymeric material or a polymeric-based compound material, said bonding agent being situated between said first contact partner (CP1) and said second contact partner (CP2), the main purpose of said bonding agent being the mechanical fixation or bonding of these two contact partners (CP1, CP2). - a first contact partner (CP1) which has ∘ a first metal contact surface (112.1; 115.1), ∘ a first metal contact surface (112.1; 115.1), - a second contact partner (CP2) which has a second metal contact surface (113.1), wherein - a 3-dimensional injection molded layer , which comprises a synthetic injection-moldable material, serves as second contact partner (CP2), - a plurality of deformable microstructures (C1.i) being situated between said first contact partner (CP1) and said second contact partner (CP2), and wherein said deformable microstructures (C1.i) are serving as electric pressure contacts which electrically connect said first metal contact surface (112.1) and said second metal contact surface (113.1) after having assembled said first contact partner (CP1) and said second contact partner (CP2),
A method for a first station, STA, to transmit signals using a Dual Carrier Modulation, DCM, in a wireless local area network, WLAN, the method comprising: modulating bits for one or more of a High Efficiency-Signaling B, HE-SIG B, field and a data field of a radio frame to be transmitted by the first STA; wherein, when the one or more of the HE-SIG B field and the data field are modulated by a Binary Phase Shifting Keying, BPSK, scheme, a symbol, C1, of BPSK modulated symbols is mapped to a subcarrier K and a phase shifted symbol of the symbol, C1, is mapped to a subcarrier K+N/2, wherein N corresponds to a number of subcarriers for transmitting the HE-SIG B field and the data field, and wherein K is an integer equal to or less than N/2; wherein, when the one or more of the HE-SIG B field and the data field are modulated by a Quadrature Phase Shifting Keying, QPSK, scheme, a symbol, C2, of QPSK modulated symbols is mapped to the subcarrier K and a conjugate of the symbol, C2, is mapped to the subcarrier K+N/2; and transmitting the symbols mapped to the subcarriers to a second STA. modulating bits for one or more of a High Efficiency-Signaling B, HE-SIG B, field and a data field of a radio frame to be transmitted by the first STA; wherein, when the one or more of the HE-SIG B field and the data field are modulated by a Binary Phase Shifting Keying, BPSK, scheme, a symbol, C1, of BPSK modulated symbols is mapped to a subcarrier K and a phase shifted symbol of the symbol, C1, is mapped to a subcarrier K+N/2, wherein N corresponds to a number of subcarriers for transmitting the HE-SIG B field and the data field, and wherein K is an integer equal to or less than N/2; wherein, when the one or more of the HE-SIG B field and the data field are modulated by a Quadrature Phase Shifting Keying, QPSK, scheme, a symbol, C2, of QPSK modulated symbols is mapped to the subcarrier K and a conjugate of the symbol, C2, is mapped to the subcarrier K+N/2; and transmitting the symbols mapped to the subcarriers to a second STA.
A subsea piston accumulator and bladder accumulator system comprising: a subsea piston accumulator having a seawater port for selectively communicating liquid into and out of said subsea piston accumulator ; a bladder accumulator having an interior and an aperture for communicating said liquid into and out said interior of said bladder accumulator ; and a bladder disposed in said interior of said bladder accumulator , said bladder having an interior adapted to hold said fluid and wherein said bladder has an aperture for communicating said fluid into and out of said interior of said bladder ; characterized in that the system further comprises a dispersion tube disposed in said bladder , said dispersion tube having a first end with an aperture for communicating said fluid into and out of said dispersion tube , a length , a second end , and a plurality of apertures on said length adapted to communicate said liquid into and out of said dispersion tube and into and out of said interior of said bladder , and in that the bladder accumulator is elastomeric so that it compresses and expands depending on ambient subsea water pressure. a subsea piston accumulator having a seawater port for selectively communicating liquid into and out of said subsea piston accumulator ; a bladder accumulator having an interior and an aperture for communicating said liquid into and out said interior of said bladder accumulator ; and a bladder disposed in said interior of said bladder accumulator , said bladder having an interior adapted to hold said fluid and wherein said bladder has an aperture for communicating said fluid into and out of said interior of said bladder ; characterized in that the system further comprises a dispersion tube disposed in said bladder , said dispersion tube having a first end with an aperture for communicating said fluid into and out of said dispersion tube , a length , a second end , and a plurality of apertures on said length adapted to communicate said liquid into and out of said dispersion tube and into and out of said interior of said bladder , and in that the bladder accumulator is elastomeric so that it compresses and expands depending on ambient subsea water pressure.
A secondary battery comprising a positive electrode including a positive electrode active material particle, a negative electrode, and an electrolyte, the positive electrode active material particle, comprising a core including lithium cobalt oxide represented by the following Chemical Formula 1; and a coating layer including boron (B) and fluorine (F), which is coated on the surface of the core, wherein a weight of the coating layer is 0.5% by weight to 5% by weight with respect to a weight of the core, and wherein in the coating layer, the boron and fluorine form a chemical bond with lithium and the boron and fluorine, together with lithium, exist as LiBF 4 : Li 1+x Co 1-x O 2 wherein -0.03≤x≤0.1. a core including lithium cobalt oxide represented by the following Chemical Formula 1; and a coating layer including boron (B) and fluorine (F), which is coated on the surface of the core, wherein a weight of the coating layer is 0.5% by weight to 5% by weight with respect to a weight of the core, and wherein in the coating layer, the boron and fluorine form a chemical bond with lithium and the boron and fluorine, together with lithium, exist as LiBF 4 : Li 1+x Co 1-x O 2 wherein -0.03≤x≤0.1.