mhurhangee/ep-ind-claims huggingface dataset:
A spinal drainage kit container comprising: a container body provided with a recessed portion in which a spinal drainage kit that includes a catheter, a puncture needle for introducing the catheter into a living body, and a connector that is connected to the catheter is disposed; a lid; and a hinge connecting the container body and the lid, the container body including a peripheral portion provided at a periphery of the recessed portion, and a first grip portion that is connected to the peripheral portion and is gripped when the lid is to be opened; the first grip portion being provided at a first corner of the container body, which is opposite to the hinge; the first grip portion having a first protruding portion protruding in a first direction; the lid including a contact portion that comes into contact with the peripheral portion in a state where the lid is closed, and a second grip portion that is connected to the contact portion and is gripped when the lid is to be opened; the second grip portion being provided at a second corner of the lid, which overlaps with the first corner in plan view in the state where the lid is closed; and the second grip portion having a second protruding portion that protrudes in a second direction and does not overlap with the container body in plan view in the state where the lid is closed, the second direction being orthogonal to the first direction. a container body provided with a recessed portion in which a spinal drainage kit that includes a catheter, a puncture needle for introducing the catheter into a living body, and a connector that is connected to the catheter is disposed; a lid; and a hinge connecting the container body and the lid, the container body including a peripheral portion provided at a periphery of the recessed portion, and a first grip portion that is connected to the peripheral portion and is gripped when the lid is to be opened; the first grip portion being provided at a first corner of the container body, which is opposite to the hinge; the first grip portion having a first protruding portion protruding in a first direction; the lid including a contact portion that comes into contact with the peripheral portion in a state where the lid is closed, and a second grip portion that is connected to the contact portion and is gripped when the lid is to be opened; the second grip portion being provided at a second corner of the lid, which overlaps with the first corner in plan view in the state where the lid is closed; and the second grip portion having a second protruding portion that protrudes in a second direction and does not overlap with the container body in plan view in the state where the lid is closed, the second direction being orthogonal to the first direction.
Mutant prethrombin-2 characterized by having SEQ ID NO: 1 or SEQ ID NO: 2 or their nucleotide encoding sequences characterized by SEQ ID NO: 5 or SEQ ID NO: 6, respectively.
A control device for an internal combustion engine, the internal combustion engine including exhaust gas recirculation devices (13, 14, 15), an adding mechanism, a catalyst, and an exhaust gas flow rate adjusting mechanism, the exhaust gas recirculation devices (13, 14, 15) being configured to allow some of exhaust gas in an exhaust passage of the internal combustion engine to return to an intake passage, the adding mechanism being configured to add a reducing agent containing an ammonia component into the exhaust passage, the catalyst being configured to purify NOx in the exhaust gas by using ammonia derived from the reducing agent, the exhaust gas flow rate adjusting mechanism being configured to adjust a flow rate of the exhaust gas flowing into the catalyst, the catalyst being positioned on a downstream side of the adding mechanism and the exhaust gas flow rate adjusting mechanism in the exhaust passage, the control device characterized by comprising: an electronic control unit configured to control the exhaust gas recirculation devices (13, 14, 15) as EGR amount-decreasing processing when an ammonia slip occurrence condition with regard to the catalyst is satisfied such that an EGR amount as the amount of the exhaust gas returning to the intake passage is smaller when the occurrence condition is not satisfied than when the occurrence condition is satisfied, the electronic control unit being configured to control the exhaust gas flow rate adjusting mechanism as exhaust gas amount-decreasing processing when the EGR amount-decreasing processing is executed such that the flow rate of the exhaust gas during the execution of the EGR amount-decreasing processing is lower than during a non-execution of the EGR amount-decreasing processing. an electronic control unit configured to control the exhaust gas recirculation devices (13, 14, 15) as EGR amount-decreasing processing when an ammonia slip occurrence condition with regard to the catalyst is satisfied such that an EGR amount as the amount of the exhaust gas returning to the intake passage is smaller when the occurrence condition is not satisfied than when the occurrence condition is satisfied, the electronic control unit being configured to control the exhaust gas flow rate adjusting mechanism as exhaust gas amount-decreasing processing when the EGR amount-decreasing processing is executed such that the flow rate of the exhaust gas during the execution of the EGR amount-decreasing processing is lower than during a non-execution of the EGR amount-decreasing processing.
Medical device for delivering at least one fluid, comprising - a first reservoir (2, 90), - a first bung (8, 94), - a first piston (10, 514), - a first electromechanical device (12, 530) and - a control unit (14, 520), - wherein said first reservoir (2, 90), said first bung (8, 94), said first piston and said first electromechanical device (12, 530) controlled by said control unit (14, 520) are arranged such that said first electromechanical device (12, 530) can be instructed to move said first bung (8, 94) via said first piston (10, 514) over a predetermined distance and a fluid is ejectable from said first reservoir (2, 90) by a first advancing movement of said first bung (8, 94), - wherein said control unit (14, 520) is configured such that, after a dwell time following said first advancing movement of said first piston (10, 514), said first piston (10, 514) is retracted by said first electromechanical device (12, 530), characterized in - that said control unit (14, 520) is configured such that, within the dwell time, the first electromechanical device (12, 530) is moved with a second forward movement so as to move the first piston with another advancing movement, in order to compensate the difference of the position reached after the first advancing movement to the desired position of the first bung corresponding to the desired dose delivery. - a first reservoir (2, 90), - a first bung (8, 94), - a first piston (10, 514), - a first electromechanical device (12, 530) and - a control unit (14, 520), - wherein said first reservoir (2, 90), said first bung (8, 94), said first piston and said first electromechanical device (12, 530) controlled by said control unit (14, 520) are arranged such that said first electromechanical device (12, 530) can be instructed to move said first bung (8, 94) via said first piston (10, 514) over a predetermined distance and a fluid is ejectable from said first reservoir (2, 90) by a first advancing movement of said first bung (8, 94), - wherein said control unit (14, 520) is configured such that, after a dwell time following said first advancing movement of said first piston (10, 514), said first piston (10, 514) is retracted by said first electromechanical device (12, 530), characterized in - that said control unit (14, 520) is configured such that, within the dwell time, the first electromechanical device (12, 530) is moved with a second forward movement so as to move the first piston with another advancing movement, in order to compensate the difference of the position reached after the first advancing movement to the desired position of the first bung corresponding to the desired dose delivery.
A memory circuit comprising: a first clock signal; a write enable signal, wherein the write enable signal has a polarity; a low skew circuit coupled to the first clock signal, the low skew circuit, configured to output a second clock signal different from the first clock signal, the second clock signal comprising a first clock skew; a high skew circuit coupled to the first clock signal, the high skew circuit, configured to output a third clock signal different from the second clock signal, the third clock signal comprising a second clock skew larger than the first clock skew; a selection circuit coupled to the low skew circuit, the high skew circuit, and the write enable signal, the selection circuit configured to output the second clock signal when the write enable signal has a first polarity or output the third clock signal when the write enable signal has a second polarity different from the first polarity; and a memory coupled to the selection circuit. a first clock signal; a write enable signal, wherein the write enable signal has a polarity; a low skew circuit coupled to the first clock signal, the low skew circuit, configured to output a second clock signal different from the first clock signal, the second clock signal comprising a first clock skew; a high skew circuit coupled to the first clock signal, the high skew circuit, configured to output a third clock signal different from the second clock signal, the third clock signal comprising a second clock skew larger than the first clock skew; a selection circuit coupled to the low skew circuit, the high skew circuit, and the write enable signal, the selection circuit configured to output the second clock signal when the write enable signal has a first polarity or output the third clock signal when the write enable signal has a second polarity different from the first polarity; and a memory coupled to the selection circuit.
A device which is designed to recognise a state of an energy store arranged in a vehicle, wherein the vehicle has a number of electrical consumers arranged distributed in the vehicle which are fed by the energy store, wherein the electrical consumers are open-loop and/or closed-loop means with which in each case a variable which denotes and/or influences the handling characteristics of the vehicle can be set, and wherein the electrical consumers in each case have a detection unit, wherein the detection units are designed to ascertain at least one supply state variable which represents or characterises a supply state of the respective electrical consumer which occurs when the electrical consumer is fed by the energy store, wherein the device further has a recognition unit which is designed, as a function of at least one supply state variable which is supplied to it, to ascertain an energy store state variable which represents the state of the energy store.
A surgical suture (100, 200, 300) comprising: a plurality of intertwined unbarbed filaments (10, 210, 310) defining a longitudinal axis; and a barbed filament (20, 40, 220, 320) including an elongate body and a plurality of barbs disposed along a length thereof, the plurality of barbs (22, 42, 222, 322) extending radially outward from a surface of the elongate body (24, 44, 224, 324), wherein the barbed filament at least partially intertwines with the plurality of unbarbed filaments and characterized in that the barbed filament is woven intermittently around an outer surface of the plurality of unbarbed filaments. a plurality of intertwined unbarbed filaments (10, 210, 310) defining a longitudinal axis; and a barbed filament (20, 40, 220, 320) including an elongate body and a plurality of barbs disposed along a length thereof, the plurality of barbs (22, 42, 222, 322) extending radially outward from a surface of the elongate body (24, 44, 224, 324), wherein the barbed filament at least partially intertwines with the plurality of unbarbed filaments and characterized in that the barbed filament is woven intermittently around an outer surface of the plurality of unbarbed filaments.
A computer-implemented method comprising: applying, via a sound reproduction system, sound cancellation that reduces an amplitude of one or more sound signals; identifying, among the one or more sound signals, an external sound whose amplitude is to be reduced by the sound cancellation; analyzing the identified external sound to determine whether the identified external sound is to be made audible to a user; and upon determining that the external sound is to be made audible to the user, modifying the sound cancellation such that the identified external sound is made audible to the user; detecting which direction the identified external sound originated from; presenting the identified external sound to the user as coming from the detected direction; and further modifying the sound cancellation to present subsequently occurring audio from the detected direction; wherein the computer-implemented method is characterized by: determining that another electronic device within a specified distance of the system has detected an external sound that is pertinent to the user; determining a current position of the other electronic device; and directionally orienting one or more microphones configured to listen to the external sounds toward the determined position of the electronic device. applying, via a sound reproduction system, sound cancellation that reduces an amplitude of one or more sound signals; identifying, among the one or more sound signals, an external sound whose amplitude is to be reduced by the sound cancellation; analyzing the identified external sound to determine whether the identified external sound is to be made audible to a user; and upon determining that the external sound is to be made audible to the user, modifying the sound cancellation such that the identified external sound is made audible to the user; detecting which direction the identified external sound originated from; presenting the identified external sound to the user as coming from the detected direction; and further modifying the sound cancellation to present subsequently occurring audio from the detected direction; wherein the computer-implemented method is characterized by: determining that another electronic device within a specified distance of the system has detected an external sound that is pertinent to the user; determining a current position of the other electronic device; and directionally orienting one or more microphones configured to listen to the external sounds toward the determined position of the electronic device. determining that another electronic device within a specified distance of the system has detected an external sound that is pertinent to the user; determining a current position of the other electronic device; and directionally orienting one or more microphones configured to listen to the external sounds toward the determined position of the electronic device.
An integral, three-dimensional knit spacer textile comprising: a first area comprising a first layer having a mesh construction with a plurality of integrally formed holes, the first layer having at least a first outer surface defining a first outer surface plane, a second layer having at least a second inner surface, and a third layer, the third layer comprising a first multifilament tie yarn of a first plurality of multifilament tie yarns that interconnect the first layer and the second layer, the first multifilament tie yarn having a first length in the first area as measured between the second inner surface and the first outer surface plane; and characterized in further comprising a second area comprising the second layer and at least a second multifilament tie yarn (510, 512) of a second plurality of multifilament tie yarns in the third layer, the second multifilament tie yarn (510, 512) including a distal terminal end, wherein the second multifilament tie yarn (510, 512) comprises a second length (414, 416) as measured between the second inner surface and the distal terminal end of the second multifilament tie yarn (510, 512) in a direction extending toward the first outer surface plane, the second length being less than the first length, wherein the second area has no first layer.
A solid wire comprising, as a chemical composition, by mass% with respect to a total mass of the solid wire: C: 0.003% to 0.080%; Si: 0.0010% to 0.50%; Mn: 0.050% to 1.80%; Al: 0.030% to 0.500%; Ni: 8.0% to 16.0%; P: 0.0200% or less; S: 0.0100% or less; O: 0.050% or less; Ta: 0% to 0.1000%; Cu: 0% to 0.5%; Cr: 0% to 0.5%; Mo: 0% to 0.5%; V: 0% to 0.20%; Ti: 0% to 0.10%; Nb: 0% to 0.10%; B: 0% to 0.010%; Mg: 0% to 0.80%; REM: 0% to 0.050%; and a remainder: Fe and impurities, wherein α defined by Formula a described below is 1.36% to 5.50%, and Ceq defined by Formula b described below is 0.250% to 0.520%, α = 2 × Mn + Al + 1.5 × Ti + Mg + 10 × Ta Ceq = C + Si / 24 + Mn / 6 + Ni / 40 + Cr / 5 + Mo / 4 + V / 14 in Formulae a and b, each element with [] indicates an amount of the element by mass% with respect to the total mass of the solid wire. C: 0.003% to 0.080%; Si: 0.0010% to 0.50%; Mn: 0.050% to 1.80%; Al: 0.030% to 0.500%; Ni: 8.0% to 16.0%; P: 0.0200% or less; S: 0.0100% or less; O: 0.050% or less; Ta: 0% to 0.1000%; Cu: 0% to 0.5%; Cr: 0% to 0.5%; Mo: 0% to 0.5%; V: 0% to 0.20%; Ti: 0% to 0.10%; Nb: 0% to 0.10%; B: 0% to 0.010%; Mg: 0% to 0.80%; REM: 0% to 0.050%; and a remainder: Fe and impurities, wherein α defined by Formula a described below is 1.36% to 5.50%, and Ceq defined by Formula b described below is 0.250% to 0.520%, α = 2 × Mn + Al + 1.5 × Ti + Mg + 10 × Ta Ceq = C + Si / 24 + Mn / 6 + Ni / 40 + Cr / 5 + Mo / 4 + V / 14 in Formulae a and b, each element with [] indicates an amount of the element by mass% with respect to the total mass of the solid wire.
An epitaxial wafer comprising: a growth substrate; a mask pattern disposed on the growth substrate comprising a plurality of masking regions masking the growth substrate and a plurality of opening regions exposing the growth substrate; and an epitaxial layer covering the mask pattern and comprising a plurality of first voids (28a, 28b) each disposed on and within the perimeter of a corresponding masking region; wherein the epitaxial layer comprises a 3D epitaxial layer grown under 3D growth conditions and a 2D epitaxial layer grown under 2D growth conditions disposed on the 3D epitaxial layer so as to form the plurality of first voids (28a, 28b); wherein an epitaxial gallium nitride-based layer is disposed between the mask pattern and the growth substrate, the gallium nitride-based layer comprising a plurality of second voids each disposed below a corresponding opening region of the mask pattern and extending under adjacent masking regions to connect the adjacent masking regions to each other; wherein the epitaxial gallium nitride-based layer has been epitaxially grown on the growth substrate and the epitaxial layer has been epitaxially grown on the gallium nitride-based layer starting from the opening regions. a growth substrate; a mask pattern disposed on the growth substrate comprising a plurality of masking regions masking the growth substrate and a plurality of opening regions exposing the growth substrate; and an epitaxial layer covering the mask pattern and comprising a plurality of first voids (28a, 28b) each disposed on and within the perimeter of a corresponding masking region; wherein the epitaxial layer comprises a 3D epitaxial layer grown under 3D growth conditions and a 2D epitaxial layer grown under 2D growth conditions disposed on the 3D epitaxial layer so as to form the plurality of first voids (28a, 28b); wherein an epitaxial gallium nitride-based layer is disposed between the mask pattern and the growth substrate, the gallium nitride-based layer comprising a plurality of second voids each disposed below a corresponding opening region of the mask pattern and extending under adjacent masking regions to connect the adjacent masking regions to each other; wherein the epitaxial gallium nitride-based layer has been epitaxially grown on the growth substrate and the epitaxial layer has been epitaxially grown on the gallium nitride-based layer starting from the opening regions.
A control system configured for controlling a plurality of distributed controllable devices (1A, 1B, 1C, 10) in a space, said devices being assigned corresponding identifiers (ID1, ID2, ID3) and being configured for transmitting corresponding identification signals comprising distinguishable identifiers of said distributed controllable devices, said control system being a portable device comprising: - a display configured to display control items (C1, C2, C3) configured for enabling control of said distributed controllable devices, and - a receiver configured to wirelessly receive said identification signals comprising said identifiers, wherein said receiver is configured for receiving positions of said distributed controllable devices; wherein the control system is configured for determining the relative positions of the distributed controllable devices in a receiving field of the receiver; wherein said control system is configured to pair said control items to said identified distributed controllable devices and to assign positions of said control items on said display to said distributed controllable devices identified by means of said received identifiers, wherein the control items are positioned on the display in accordance with the determined relative positions of the distributed controllable devices; wherein said control system comprises an image sensor for visually registering said controllable devices to obtain a scene image, wherein said control system is configured to combine said scene image and said control items on said display; and wherein said control system is configured such that if the image sensor moves to register a different part of the space, the displayed control items change accordingly. - a display configured to display control items (C1, C2, C3) configured for enabling control of said distributed controllable devices, and - a receiver configured to wirelessly receive said identification signals comprising said identifiers, wherein said receiver is configured for receiving positions of said distributed controllable devices; wherein the control system is configured for determining the relative positions of the distributed controllable devices in a receiving field of the receiver; wherein said control system is configured to pair said control items to said identified distributed controllable devices and to assign positions of said control items on said display to said distributed controllable devices identified by means of said received identifiers, wherein the control items are positioned on the display in accordance with the determined relative positions of the distributed controllable devices; wherein said control system comprises an image sensor for visually registering said controllable devices to obtain a scene image, wherein said control system is configured to combine said scene image and said control items on said display; and wherein said control system is configured such that if the image sensor moves to register a different part of the space, the displayed control items change accordingly.