mhurhangee/ep-ind-claims huggingface dataset:
A rigid endoscope device, comprising a disposable endoscope body structure, a disposable antibacterial line mechanism, and a reusable camera mechanism; the rigid endoscope further comprising: a light source is provided in the front end of the endoscope body structure; the endoscope body structure is separated from the antibacterial line mechanism; the camera mechanism is operable to be inserted into the endoscope body structure in a linear direction from a rear end of the endoscope body structure, and the antibacterial line mechanism is operable to be connected with the rear end of the endoscope body structure in the linear direction and sealed at the rear end of the endoscope body structure, such that the camera mechanism inside the endoscope body structure is isolated from the outside; the antibacterial line mechanism is configured with a disposable power cord, a power supply interface of the antibacterial line mechanism is connected with a first connection port of the camera mechanism, and a power supply of the power cord is supplied to the first connection port via the power supply interface; the camera mechanism is connected to a light source power supply interface of the light source through a second connection port after being connected to the endoscope body structure, and a power supply of the first connection port is supplied to the light source through the light source power supply interface and a light source wire. a light source is provided in the front end of the endoscope body structure; the endoscope body structure is separated from the antibacterial line mechanism; the camera mechanism is operable to be inserted into the endoscope body structure in a linear direction from a rear end of the endoscope body structure, and the antibacterial line mechanism is operable to be connected with the rear end of the endoscope body structure in the linear direction and sealed at the rear end of the endoscope body structure, such that the camera mechanism inside the endoscope body structure is isolated from the outside; the antibacterial line mechanism is configured with a disposable power cord, a power supply interface of the antibacterial line mechanism is connected with a first connection port of the camera mechanism, and a power supply of the power cord is supplied to the first connection port via the power supply interface; the camera mechanism is connected to a light source power supply interface of the light source through a second connection port after being connected to the endoscope body structure, and a power supply of the first connection port is supplied to the light source through the light source power supply interface and a light source wire.
A multibeam antenna comprising: a direct radiating array (110; 710), DRA, comprising a plurality of radiating elements; a reflector (120; 720) facing the DRA so as to reflect a radiated field generated by the DRA; and a DRA controller (111; 711) configured to control the plurality of radiating elements of the DRA according to a plurality of coefficients, such that the radiated field generated at the DRA produces a plurality of beams when reflected by the reflector, wherein the DRA controller is configured to determine the plurality of coefficients by using a bifocal antenna model to determine a radiated field that would be produced by a subreflector and feed horn arrangement in an equivalent bifocal antenna configured to produce the plurality of beams, and determining the plurality of coefficients required to produce a similar radiated field at the surface of the DRA so as to generate a desired incident field at the surface of the reflector, and wherein the subreflector in the bifocal antenna model is located at the same position as the DRA. a direct radiating array (110; 710), DRA, comprising a plurality of radiating elements; a reflector (120; 720) facing the DRA so as to reflect a radiated field generated by the DRA; and a DRA controller (111; 711) configured to control the plurality of radiating elements of the DRA according to a plurality of coefficients, such that the radiated field generated at the DRA produces a plurality of beams when reflected by the reflector, wherein the DRA controller is configured to determine the plurality of coefficients by using a bifocal antenna model to determine a radiated field that would be produced by a subreflector and feed horn arrangement in an equivalent bifocal antenna configured to produce the plurality of beams, and determining the plurality of coefficients required to produce a similar radiated field at the surface of the DRA so as to generate a desired incident field at the surface of the reflector, and wherein the subreflector in the bifocal antenna model is located at the same position as the DRA.
A medical imaging apparatus that captures observation light from an observed region inside a subject, comprising: plural types of optical path separation devices (5, 6) which respectively guide first observation light and second observation light that are included in observation light from a scope that is selected from either a single lens scope or a twin lens relay scope, inserted into the subject, takes in the observation light from the observed region inside the subject, and emits the observation light, along optical paths being different from each other; and an imaging apparatus which is shared by the plural types of optical path separation devices, is attachably/ detachably connected to the plural types of optical path separation devices, and captures the first observation light and the second observation light respectively guided by the connected optical path separation devices, wherein the selected scope is configured as the single lens scope in which an optical system is disposed in one optical path and the optical system takes in and emits the observation light, and wherein any one optical path separation device of the plural types of optical path separation devices includes a wavelength separating unit which separates the observation light into the first observation light which is infrared light and the second observation light which is visible light. plural types of optical path separation devices (5, 6) which respectively guide first observation light and second observation light that are included in observation light from a scope that is selected from either a single lens scope or a twin lens relay scope, inserted into the subject, takes in the observation light from the observed region inside the subject, and emits the observation light, along optical paths being different from each other; and an imaging apparatus which is shared by the plural types of optical path separation devices, is attachably/ detachably connected to the plural types of optical path separation devices, and captures the first observation light and the second observation light respectively guided by the connected optical path separation devices, wherein the selected scope is configured as the single lens scope in which an optical system is disposed in one optical path and the optical system takes in and emits the observation light, and wherein any one optical path separation device of the plural types of optical path separation devices includes a wavelength separating unit which separates the observation light into the first observation light which is infrared light and the second observation light which is visible light.
A safety device for a pre-filled syringe, comprising - a substantially cylindrical and hollow support body (1.2) comprising at least one resilient arm (1.2.3) and - a hollow needle shield (1.1) slideably arranged relative to the support body (1.2), wherein the needle shield (1.1) or a needle shield assembly comprises at least one curved actuation ramp (1.1.2) protruding in a lateral direction perpendicular to a central axis of the safety device, characterized in that the curved actuation ramp (1.1.2) comprises a first lateral dimension at a proximal end of the needle shield (1.1) and a second lateral dimension exceeding the first lateral dimension at a distal end of the needle shield (1.1), whereby the resilient arm (1.2.3) engages the curved actuation ramp (1.1.2) when the needle shield (1.1) is slid relative to the support body (1.2). - a substantially cylindrical and hollow support body (1.2) comprising at least one resilient arm (1.2.3) and - a hollow needle shield (1.1) slideably arranged relative to the support body (1.2), wherein the needle shield (1.1) or a needle shield assembly comprises at least one curved actuation ramp (1.1.2) protruding in a lateral direction perpendicular to a central axis of the safety device, characterized in that the curved actuation ramp (1.1.2) comprises a first lateral dimension at a proximal end of the needle shield (1.1) and a second lateral dimension exceeding the first lateral dimension at a distal end of the needle shield (1.1), whereby the resilient arm (1.2.3) engages the curved actuation ramp (1.1.2) when the needle shield (1.1) is slid relative to the support body (1.2).
An automatic dishwasher detergent containing builder(s), enzyme(s) and a) a non-ionic surfactant A of general formula R 1 -CH CH 2 -O(CH 2 CH 2 O) x CH 2 CHR(OCH 2 CH 2) y O-CH 2 CH -R 2, in which - R, R 1 and R 2 represent, independently of one another, an alkyl functional group or alkenyl functional group having from 6 to 22 carbon atoms; - x and y represent, independently of one another, values of between 1 and 40; b) a non-ionic surfactant B that is different from the non-ionic surfactant A; c) an anionic copolymer C. a) a non-ionic surfactant A of general formula R 1 -CH CH 2 -O(CH 2 CH 2 O) x CH 2 CHR(OCH 2 CH 2) y O-CH 2 CH -R 2, in which - R, R 1 and R 2 represent, independently of one another, an alkyl functional group or alkenyl functional group having from 6 to 22 carbon atoms; - x and y represent, independently of one another, values of between 1 and 40; - R, R 1 and R 2 represent, independently of one another, an alkyl functional group or alkenyl functional group having from 6 to 22 carbon atoms; - x and y represent, independently of one another, values of between 1 and 40; b) a non-ionic surfactant B that is different from the non-ionic surfactant A; c) an anionic copolymer C.
An electron-trapping electroactive compound having Formula II wherein: Ar 1 is an aryl group; R 1 is the same or different at each occurrence and is D, alkyl or aryl; R 2 is an electron-withdrawing group; R 3 is carbazolyl, diarylamino, or a deuterated analog thereof; R 4 is the same or different at each occurrence and is D, alkyl, alkoxy, silyl, siloxane, an electron withdrawing group, or a deuterated analog thereof; R 5 is the same or different at each occurrence and is D, alkyl, alkoxy, silyl, siloxane, an electron-withdrawing group, or a deuterated analog thereof; a is an integer from 0 to 4; b is an integer from 0 to 4; c is an integer from 1 to 5; d is an integer from 0 to 4, such that c + d ≤ 5; and e is an integer from 0 to 4; and further wherein the compound has a LUMO level deeper than -2.3 eV and a band gap of at least 2.9 eV. Ar 1 is an aryl group; R 1 is the same or different at each occurrence and is D, alkyl or aryl; R 2 is an electron-withdrawing group; R 3 is carbazolyl, diarylamino, or a deuterated analog thereof; R 4 is the same or different at each occurrence and is D, alkyl, alkoxy, silyl, siloxane, an electron withdrawing group, or a deuterated analog thereof; R 5 is the same or different at each occurrence and is D, alkyl, alkoxy, silyl, siloxane, an electron-withdrawing group, or a deuterated analog thereof; a is an integer from 0 to 4; b is an integer from 0 to 4; c is an integer from 1 to 5; d is an integer from 0 to 4, such that c + d ≤ 5; and e is an integer from 0 to 4;
Reversible system for dissipating heat power generated in a gas turbine engine, the system comprising: a condenser-forming first heat exchanger for exchanging heat between a refrigerant fluid and a cold source; an evaporator-forming second heat exchanger for exchanging heat between the refrigerant fluid and a hot source generating heat power; a scroll compressor arranged upstream from the first heat exchanger and downstream from the second heat exchanger; the scroll compressor being suitable for operating as a compressor when the temperature of the cold source is higher than a predefined threshold temperature and as a turbine when the temperature of the cold source is lower than the threshold temperature; an expander and a pump arranged in parallel downstream from the first heat exchanger and upstream from the second heat exchanger; and a control valve arranged upstream from the expander and the pump and suitable for directing the refrigerant fluid to the expander when the temperature of the cold source is higher than the threshold temperature and to the pump when the temperature of the cold source is lower than the threshold temperature. a condenser-forming first heat exchanger for exchanging heat between a refrigerant fluid and a cold source; an evaporator-forming second heat exchanger for exchanging heat between the refrigerant fluid and a hot source generating heat power; a scroll compressor arranged upstream from the first heat exchanger and downstream from the second heat exchanger; the scroll compressor being suitable for operating as a compressor when the temperature of the cold source is higher than a predefined threshold temperature and as a turbine when the temperature of the cold source is lower than the threshold temperature; an expander and a pump arranged in parallel downstream from the first heat exchanger and upstream from the second heat exchanger; and a control valve arranged upstream from the expander and the pump and suitable for directing the refrigerant fluid to the expander when the temperature of the cold source is higher than the threshold temperature and to the pump when the temperature of the cold source is lower than the threshold temperature.
A process for the isolation of one or more human proteins from a protein solution wherein the protein solution is obtained from human plasma and contains ethanol and a Cohn fraction is selected from the group consisting of supernatant I, supernatant II+III, supernatant I+II+III, resolubilized fraction II+III, resolubilized fraction IV-1, and an combination thereof, said process comprising the steps of: a Cohn fraction a) adjusting the pH of the protein solution to a preset pH; b) adjusting the ionic strength of the protein solution to a preset ionic strength; c) applying said protein solution to an expanded bed adsorption column comprising high-density adsorbent particles having a density of from 1.5 g/ml to 15 g/ml, and wherein 85% by volume of the high density adsorbent particles have a particle diameter in the range 10 to 150 μm; d) washing the column with a washing buffer to wash out non-bound material; e) washing the column with an elution buffer to elute one or more human proteins from the adsorbent; wherein the linear liquid flow rate through the column is at least 2 cm/min. a Cohn fraction a) adjusting the pH of the protein solution to a preset pH; b) adjusting the ionic strength of the protein solution to a preset ionic strength; c) applying said protein solution to an expanded bed adsorption column comprising high-density adsorbent particles having a density of from 1.5 g/ml to 15 g/ml, and wherein 85% by volume of the high density adsorbent particles have a particle diameter in the range 10 to 150 μm; d) washing the column with a washing buffer to wash out non-bound material; e) washing the column with an elution buffer to elute one or more human proteins from the adsorbent; a) adjusting the pH of the protein solution to a preset pH; b) adjusting the ionic strength of the protein solution to a preset ionic strength; c) applying said protein solution to an expanded bed adsorption column comprising high-density adsorbent particles having a density of from 1.5 g/ml to 15 g/ml, and wherein 85% by volume of the high density adsorbent particles have a particle diameter in the range 10 to 150 μm; d) washing the column with a washing buffer to wash out non-bound material; e) washing the column with an elution buffer to elute one or more human proteins from the adsorbent;
A turbine engine blade comprising an airfoil extending axially between a leading edge and a trailing edge and extending radially between a root and a tip, the blade being characterized in that the leading edge of the airfoil presents a sweep angle that is positive and that increases continuously from the root to a first radial height (h 1) of the airfoil situated in the range 20% to 40% of the total radial height of the airfoil as measured from the root to the tip, that decreases continuously from this first radial height of the airfoil to the tip, and that becomes negative as from a second radial height (h 2) of the airfoil situated in the range 60% to 80% of the total radial height of the airfoil.
Ophthalmological optical element for correcting visual defects, in particular a spectacle lens, having a first refractive optical substrate, which has a positive or negative first optical power; a first diffractive optical element, which has a second optical power; a second diffractive optical element, which has a third optical power; wherein the first diffractive optical element and the second diffractive optical element have opposite optical powers, and characterized in that the absolute value of a sum of the second optical power of the first diffractive optical element and the third optical power of the second diffractive optical element divided by an absolute value of a difference between the second optical power and the third optical power is less than 1/10, in particular less than 1/15 and in particular less than 1/20. a first refractive optical substrate, which has a positive or negative first optical power; a first diffractive optical element, which has a second optical power; a second diffractive optical element, which has a third optical power; wherein the first diffractive optical element and the second diffractive optical element have opposite optical powers, and characterized in that the absolute value of a sum of the second optical power of the first diffractive optical element and the third optical power of the second diffractive optical element divided by an absolute value of a difference between the second optical power and the third optical power is less than 1/10, in particular less than 1/15 and in particular less than 1/20.
Interface for controlling at least one function of a motor vehicle member, comprising: - at least one control member comprising: - a movable gripping element movable in rotation about an axis of rotation, - at least one metal index (6a, 6b) borne by the movable gripping element and movable therewith, - a guide, the movable gripping element being supported and guided in rotation by the guide surrounded by the gripping member, and - a capacitive touch pad configured, on the one hand, to detect the position of the metal index (6a, 6b) and, on the other hand, to input information by touch, the guide being fixed to the capacitive touch pad, the metal index (6a, 6b) being arranged facing the capacitive touch pad, characterized in that the guide comprises a mechanical rolling bearing interposed between a base plate of the guide and the movable gripping element, the mechanical rolling bearing being a ball bearing, a cylinder bearing or a needle bearing, the interface further comprising at least one pressure sensor configured to measure a parameter representative of a pressure force exerted on the capacitive touch pad, a fixed part and at least one damping element arranged between the fixed part and a movable part of the interface comprising the capacitive touch pad, the pressure sensor being a capacitive sensor configured to measure a displacement of the movable part with respect to the fixed part. - at least one control member comprising: - a movable gripping element movable in rotation about an axis of rotation, - at least one metal index (6a, 6b) borne by the movable gripping element and movable therewith, - a guide, the movable gripping element being supported and guided in rotation by the guide surrounded by the gripping member, and - a capacitive touch pad configured, on the one hand, to detect the position of the metal index (6a, 6b) and, on the other hand, to input information by touch, the guide being fixed to the capacitive touch pad, the metal index (6a, 6b) being arranged facing the capacitive touch pad, characterized in that the guide comprises a mechanical rolling bearing interposed between a base plate of the guide and the movable gripping element, the mechanical rolling bearing being a ball bearing, a cylinder bearing or a needle bearing, the interface further comprising at least one pressure sensor configured to measure a parameter representative of a pressure force exerted on the capacitive touch pad, a fixed part and at least one damping element arranged between the fixed part and a movable part of the interface comprising the capacitive touch pad, the pressure sensor being a capacitive sensor configured to measure a displacement of the movable part with respect to the fixed part.
A process for producing superabsorbent polymer particles, comprising polymerization of a monomer solution, comprising a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker and c) at least one initiator, drying the formed polymer gel, grinding the dried polymer gel, classifying and thermally surface post-crosslinking of the polymer particles, wherein the monomer solution further comprises from 0.001 to 1.00 mol-% of a chelating agent and from 0.0001 to 0.100 mol-% of an aluminum cation, each based on monomer a). a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker and c) at least one initiator,
An image decoding device which decodes an encoded bit stream formed by encoded images which are encoded on an objectwise basis, comprising: decoding means for decoding a header information area of the encoded bit stream to restore both, a display rate flag indicating that an object display speed is a fixed speed and object display speed informations that represents a predetermined fixed display rate value or that the value is other than the predetermined fixed display rate values, the display rate flag and the object display speed information being included as codewords in the header information area for a VOL, wherein for the VOL, the header information area is separate from a data area, wherein a VOP header information area contains time information when a concerned VOP is to be displayed, and wherein, if the value is other than the predetermined fixed display rate values, a VOP rate information is calculated based on a count value and on time information of a first counted VOP and a second counted VOP. decoding means for decoding a header information area of the encoded bit stream to restore both, a display rate flag indicating that an object display speed is a fixed speed and object display speed informations that represents a predetermined fixed display rate value or that the value is other than the predetermined fixed display rate values, the display rate flag and the object display speed information being included as codewords in the header information area for a VOL, wherein for the VOL, the header information area is separate from a data area, wherein a VOP header information area contains time information when a concerned VOP is to be displayed, and wherein, if the value is other than the predetermined fixed display rate values, a VOP rate information is calculated based on a count value and on time information of a first counted VOP and a second counted VOP.