mhurhangee/ep-ind-claims huggingface dataset:
Embolic microparticles for use in a method of treatment by embolisation wherein in the treatment drug is released in a hypoxic environment, the microparticles comprising a gel body, wherein the gel body comprises a synthetic polymer and a drug, wherein the microparticles have an average diameter in the range 40 to 1500 μm, wherein the polymer is cross-linked by groups comprising disulphide linkages and is in the form of a hydrogel, wherein each cross linking group comprises two cationically or anionically charged groups at physiological pH, symmetrically arranged either side of the disulfide linkage, wherein the two cationically or anionically charged groups are electrostatically associated with the drug.
A radio card capable of radio communications, comprising: a casing having a shape of a card; an IC module provided within the casing; and a loop antenna provided within the casing, electrically coupled to the IC module and comprised of a coil (41, 51, 61, 71, 81, 91, 101, 111) having a given configuration, wherein the loop antenna is configured with a shape that generally follows the periphery of the casing such that an aperture area of the loop antenna is maximized, and wherein the shape of the loop antenna include undulations in at least one wave-like formation so that if two radio cards having identical loop antenna configurations are superimposed in any orientation other than having the tops of the radio cards aligned with the front side of one radio card facing the back side of the other radio card, the superimposition results in a mismatch of the respective loop antenna configurations; characterized in that the antenna has a shape such that in a state in which a top surface of one radio card and a rear surface of another radio card are opposed and in which the casings of those radio cards are superimposed one on the other with one radio card turned through 180° relative to the other the shapes of the loop antennas are not matched. a casing having a shape of a card; an IC module provided within the casing; and a loop antenna provided within the casing, electrically coupled to the IC module and comprised of a coil (41, 51, 61, 71, 81, 91, 101, 111) having a given configuration, wherein the loop antenna is configured with a shape that generally follows the periphery of the casing such that an aperture area of the loop antenna is maximized, and wherein the shape of the loop antenna include undulations in at least one wave-like formation so that if two radio cards having identical loop antenna configurations are superimposed in any orientation other than having the tops of the radio cards aligned with the front side of one radio card facing the back side of the other radio card, the superimposition results in a mismatch of the respective loop antenna configurations; characterized in that the antenna has a shape such that in a state in which a top surface of one radio card and a rear surface of another radio card are opposed and in which the casings of those radio cards are superimposed one on the other with one radio card turned through 180° relative to the other the shapes of the loop antennas are not matched.
A detection system for a vehicle to detect the presence of one or more objects relative to the vehicle comprising: a module housing; a radar sensor component located within the module housing for emitting a radar beam and receiving reflected signals in a detection mode; characterized in that the radar sensor component comprises means for emitting a defrost beam in a defrost mode; said defrost beam overlapping the radar beam; the detection system further comprising an absorber material located in the field of view of the defrost beam to absorb the energy of the defrost beam and to warm up in view to provide a defrosting effect. a module housing; a radar sensor component located within the module housing for emitting a radar beam and receiving reflected signals in a detection mode; characterized in that the radar sensor component comprises means for emitting a defrost beam in a defrost mode; said defrost beam overlapping the radar beam; the detection system further comprising an absorber material located in the field of view of the defrost beam to absorb the energy of the defrost beam and to warm up in view to provide a defrosting effect.
Polycondensate containing at least a structural unit, which is an aromatic moiety bearing a polyether side chain comprising alkylene glycol units, with the proviso that the number of ethylene glycol units in the side chain is from 9 to 41 and that the content of ethylene glycol units is higher than 80 mol % with respect to all alkylene glycol units in the polyether side chain, at least a structural unit, which is an aromatic moiety bearing at least one phosphoric acid ester group and/or its salt, with the proviso that the molar ratio of to is from 0.3 to 4, at least a methylene unit (-CH 2 -), which is attached to two aromatic structural units Y, where aromatic structural units Y, independently of one another, are identical or different and are represented by structural unit, structural unit or optionally aromatic structural units of the polycondensate, which are different from structural unit and structural unit and wherein the polycondensation degree of the polycondensate containing the units,, and optionally is in the range from 10-75, where the polycondensation degree is determined by the method described in the present specification. at least a structural unit, which is an aromatic moiety bearing a polyether side chain comprising alkylene glycol units, with the proviso that the number of ethylene glycol units in the side chain is from 9 to 41 and that the content of ethylene glycol units is higher than 80 mol % with respect to all alkylene glycol units in the polyether side chain, at least a structural unit, which is an aromatic moiety bearing at least one phosphoric acid ester group and/or its salt, with the proviso that the molar ratio of to is from 0.3 to 4, at least a methylene unit (-CH 2 -), which is attached to two aromatic structural units Y, where aromatic structural units Y, independently of one another, are identical or different and are represented by structural unit, structural unit or optionally aromatic structural units of the polycondensate, which are different from structural unit and structural unit and wherein the polycondensation degree of the polycondensate containing the units,, and optionally is in the range from 10-75, where the polycondensation degree is determined by the method described in the present specification.
An autoinjector comprising a body a lower body (10; 1010) and an actuating sleeve (11; 1011), said lower body (10; 1010) receiving a reservoir, said reservoir containing fluid product and comprising a piston and a needle, such as a pre-filled syringe, said actuating sleeve (11; 1011) being provided with a contact end designed to make contact with the body of the user, said actuating sleeve (11; 1011) being displaceable in said lower body (10; 1010) between projected positions, in which said actuating sleeve (11; 1011) at least partially projects out of said lower body (10; 1010) and an actuation position, in which said actuating sleeve (11; 1011) is axially displaced towards the interior of said lower body (10; 1010), said autoinjector comprising a piston rod (5; 1005) adapted to cooperate with the piston of said reservoir, said piston rod (5; 1005) being displaceable between a loaded position and an injection position in which said piston rod (5; 1005) has displaced the piston of the reservoir to inject the fluid product through the needle, an injection spring (8; 1008) being provided to stress said piston rod (5; 1005) towards its injection position, the autoinjector comprising an injection lock which blocks said piston rod (5; 1005) in its loaded position, said injection lock comprising a control sleeve (4; 1004), said control sleeve (4; 1004) containing said piston rod (5; 1005) and said injection spring (8; 1008), said piston rod (5; 1005) comprising a radial recess (50; 1050) receiving at least one spherical blocking element (7; 1007) mobile between a blocking position and an unblocking position, said at least one blocking element (7; 1007) being stressed radially towards the exterior by said piston rod (5; 1005) and being held in the blocking position by a blocking member (23; 1004), said blocking member (23; 1004) being displaceable relative to said piston rod (5; 1005) to release said at least one blocking element (7; 1007) and thus unblock said injection lock, allowing said injection spring to displace said piston rod (5; 1005) towards its injection position, said actuating sleeve (11; 1011), in the actuation position, causing displacement of said blocking member (23; 1004) from its locking position towards its unlocking position, to trigger said injection lock characterized in that said at least one spherical blocking element (7; 1007) is a ball.
Method for building a tower, especially a tower for a wind power plant, in which at least one tubular tower section is made of annular prefabricated concrete parts with two horizontal contact surfaces placed on top of one another, characterized in that after pouring, the annular prefabricated concrete parts are clamped in a processing station of the prefabricated parts factory and material is removed from the two horizontal contact surfaces of the prefabricated concrete parts in the same fixture and without a further fixture when they are processed in plane-parallel position.
A method of determining the roll angle of a camera mounted on a host vehicle comprising: a) defining Cartesian axes in the real world and corresponding axes in said camera imager, b) from an image taken from said camera, determining the co-ordinates xI,1, yI,1 and xI,2, yI,2 of the two points (P1, P2) of the real world, in the imager of the camera, c) determining the difference D in the coordinates of said points in a horizontal World plane in one axis (Xw,1 - Xw,2), using corresponding co-ordinate system as in step b); d) determining the roll angle p of a camera located on a host vehicle from the following formula ρ = D / h − c 2 / a 2 − c 1 / a 1 / a 2 d 2 − b 2 c 2 / a 2 2 − a 1 d 1 − b 1 c 1 / a 1 2, where a 1 and a 2 are found from the following, where i =1,2 represents the two points (P1,P2),: a i = sin θ ∗ f + cos θ ∗ y I, i bi = − cos θ ∗ xI, i ci = − cos η cos θ ∗ f + sin η ∗ xI, i + cos η sin θ ∗ yI, i di = − cos η sin θ ∗ xI, i + sin η ∗ yI, i where θ is the known value of fixed tilt angle, η is the known value of fixed pan angle and h is the known fixed camera height h; and x I,i, y I,i are the respective co-ordinates of two said points in the imager. a) defining Cartesian axes in the real world and corresponding axes in said camera imager, b) from an image taken from said camera, determining the co-ordinates xI,1, yI,1 and xI,2, yI,2 of the two points (P1, P2) of the real world, in the imager of the camera, c) determining the difference D in the coordinates of said points in a horizontal World plane in one axis (Xw,1 - Xw,2), using corresponding co-ordinate system as in step b); d) determining the roll angle p of a camera located on a host vehicle from the following formula ρ = D / h − c 2 / a 2 − c 1 / a 1 / a 2 d 2 − b 2 c 2 / a 2 2 − a 1 d 1 − b 1 c 1 / a 1 2, where a 1 and a 2 are found from the following, where i =1,2 represents the two points (P1,P2),: a i = sin θ ∗ f + cos θ ∗ y I, i bi = − cos θ ∗ xI, i ci = − cos η cos θ ∗ f + sin η ∗ xI, i + cos η sin θ ∗ yI, i di = − cos η sin θ ∗ xI, i + sin η ∗ yI, i where θ is the known value of fixed tilt angle, η is the known value of fixed pan angle and h is the known fixed camera height h; and x I,i, y I,i are the respective co-ordinates of two said points in the imager. where θ is the known value of fixed tilt angle, η is the known value of fixed pan angle and h is the known fixed camera height h; and x I,i, y I,i are the respective co-ordinates of two said points in the imager.
A passive fire response system configured to suppress a metallic fire, the system comprising: a reservoir containing an ionic liquid; at least one outlet in communication with the reservoir; a valve arranged between the reservoir and the outlet; a sensor configured to sense at least one of a hydrogen concentration and a temperature; and a controller configured to open the valve and release the ionic liquid if an output from the sensor indicates that the at least one of the hydrogen concentration and the temperature equals or exceeds at least one of a threshold hydrogen concentration and a threshold temperature. a reservoir containing an ionic liquid; at least one outlet in communication with the reservoir; a valve arranged between the reservoir and the outlet; a sensor configured to sense at least one of a hydrogen concentration and a temperature; and a controller configured to open the valve and release the ionic liquid if an output from the sensor indicates that the at least one of the hydrogen concentration and the temperature equals or exceeds at least one of a threshold hydrogen concentration and a threshold temperature.
A dishwasher comprising - a body having a front door, two side walls, a rear wall and a ceiling, - at least one rack mounted to the dishwasher side walls having a base and side walls surrounding the base and wherein items to be washed are disposable, - two glass loading areas located in the portions that are adjacent to the side walls of the rack which is close to the ceiling of the body, and whereon wine glasses or more than one cup are disposable one over the other, - two hangers fixed oppositely to the ceiling of the body, - two guide rails mounted to the two hangers, wherein each hanger forms a pair with one guide rail, and - one drawer wherein items to be washed are disposable, the drawer having a width so that it will remain within a central upper space inside the body, being located above of a space defined between the two glass loading areas, the drawer being mounted to the two guide rails in a movable way such that the drawer will not collide with wine glasses or cups that are disposable on the glass loading areas, the drawer being fixed to the ceiling from the sides by means of the two hangers and the two guide rails mounted to these hangers, wherein the two hangers and the two guide rails extend in a parallel manner from the front towards the rear at the ceiling, wherein the width of the drawer is almost equal to the distance remaining between the two glass loading areas, characterized in that the two hangers are fixed in an area different from the corners of the ceiling, in that the rack has at least one auxiliary rack extending from the side wall to the glass loading area, enabling more than one item to be loaded as one over the other, the at least one auxiliary rack being mounted onto the side wall such that it will be able to be moved by rotating between the positions perpendicular and parallel to the side wall, and in that the drawer remains outside the area that is swept by the auxiliary rack during its rotational movement. - a body having a front door, two side walls, a rear wall and a ceiling, - at least one rack mounted to the dishwasher side walls having a base and side walls surrounding the base and wherein items to be washed are disposable, - two glass loading areas located in the portions that are adjacent to the side walls of the rack which is close to the ceiling of the body, and whereon wine glasses or more than one cup are disposable one over the other, - two hangers fixed oppositely to the ceiling of the body, - two guide rails mounted to the two hangers, wherein each hanger forms a pair with one guide rail, and - one drawer wherein items to be washed are disposable, the drawer having a width so that it will remain within a central upper space inside the body, being located above of a space defined between the two glass loading areas, the drawer being mounted to the two guide rails in a movable way such that the drawer will not collide with wine glasses or cups that are disposable on the glass loading areas,
A method for achieving a skin benefit selected from the group consisting of a cosmetic, UV protection, skin radiance and mixtures thereof comprising depositing a particulate containing composition onto mammalian skin such that when the particles contact the mammalian skin they have a momentum defined by pvr within the range of about 0.1 kg/ms ≤ ρvr ≤ about 12.0 kg/ms, wherein the particles are injected into the stratum corneum and remain there for at least one day, wherein the cosmetic or skin radiance benefit is provided by injecting particles that are inorganic or organic cosmetic pigmentary grade particles which are in the range of from 10 nanometers to 20 micrometers in size, and which scatter less than 10% of light in the wave lengths of from 400 nanometers to 700 nanometers, and wherein the UV protection benefit is provided by injecting particles selected from the group consisting of titanium dioxide, zinc oxide, and mixtures thereof, which are smaller than 200 nanometers in size, and which scatter at least 90% of UV light in the wave lengths of from 290 nanometers to 400 nanometers.
A method of calibrating intrinsic parameters associated with a camera, the method comprising: positioning a camera to receive collimated light from a rotatable collimator having a tube and a target located within the tube, a central target aperture located in a center of the target and a plurality of peripheral target apertures (UY,RX, LY, LX) located around a periphery of the target, wherein the collimated light is provided to a camera aperture of the camera via one or more of the central target aperture and the plurality of peripheral target apertures (step 700); rotating the collimator along a first axis extending through the camera aperture which is an entrance pupil location of the camera and recording spot positions associated with collimated light provided through one or more of the central target aperture and plurality of peripheral target apertures of the target at a plurality of first axis intervals (step 714, 716); and determining a distortion profile associated with the camera based on the recorded spot positions measured at the plurality of first axis intervals (step 718). positioning a camera to receive collimated light from a rotatable collimator having a tube and a target located within the tube, a central target aperture located in a center of the target and a plurality of peripheral target apertures (UY,RX, LY, LX) located around a periphery of the target, wherein the collimated light is provided to a camera aperture of the camera via one or more of the central target aperture and the plurality of peripheral target apertures (step 700); a tube and a target located within the tube, a central target aperture located in a center of the target and a plurality of peripheral target apertures (UY,RX, LY, LX) located around a periphery of the target, wherein the collimated light is provided to a camera aperture of the camera via one or more of the central target aperture and the plurality of peripheral target apertures (step 700); rotating the collimator along a first axis extending through the camera aperture which is an entrance pupil location of the camera and recording spot positions associated with collimated light provided through one or more of the central target aperture and plurality of peripheral target apertures of the target at a plurality of first axis intervals (step 714, 716); and determining a distortion profile associated with the camera based on the recorded spot positions measured at the plurality of first axis intervals (step 718).
An apparatus comprising: a money item sensor comprising an electrical oscillator which is operable at a plurality of different oscillating frequencies to sense at least one property of money items, wherein the electrical oscillator comprises a resonant electrical oscillator circuit; wherein the resonant electrical oscillator circuit comprises a money item sensing element (Li) in the form of an inductor and a plurality of resonant capacitive elements (C1A-C3B); and wherein the electrical oscillator is configured to trigger one or more switches to change the oscillating frequency by switching one or more capacitive components (C1A-C3B) into or out of the oscillator circuit synchronously with the beginning of a new half-cycle of the oscillator circuit when the electrical current in the money item sensing element (Li) is zero. a money item sensor comprising an electrical oscillator which is operable at a plurality of different oscillating frequencies to sense at least one property of money items, wherein the electrical oscillator comprises a resonant electrical oscillator circuit; wherein the resonant electrical oscillator circuit comprises a money item sensing element (Li) in the form of an inductor and a plurality of resonant capacitive elements (C1A-C3B); and wherein the electrical oscillator is configured to trigger one or more switches to change the oscillating frequency by switching one or more capacitive components (C1A-C3B) into or out of the oscillator circuit synchronously with the beginning of a new half-cycle of the oscillator circuit when the electrical current in the money item sensing element (Li) is zero.
An optical member comprising a TiO 2 -containing silica glass having: a TiO 2 concentration of from 3 to 10% by mass; a Ti 3+ concentration of 100 wt ppm or less; a thermal expansion coefficient at from 0 to 100°C, CTE 0-100, of 0±150 ppb/°C; and an internal transmittance in the wavelength region of 400 to 700 nm per a thickness of 1 mm, T 400-700, of 80% or more, wherein the optical member has a ratio of variation of Ti 3+ concentration to an average value of the Ti 3+ concentration, ΔTi 3+ /Ti 3+, on an optical use surface, of 0.2 or less.
A cabin air pressure control system (100, 220, 280, 300, 400, 500) the system comprising: an outflow valve (150, 350, 450A, 450B) configured to release pressure from a cabin; an electric motor configured to control a position of the outflow valve; an electric switch (202, 260, 278) configured to control the electric motor; processing circuitry (122, 320, 420A, 420B) configured to: receive a signal indicating a pressure of the cabin; in response to the electric switch being set to a hold position, determine a cabin pressure setpoint; and control the electric motor to adjust the position of the outflow valve to maintain the pressure of the cabin based on the cabin pressure setpoint; an automatic pressure control unit including second processing circuitry and a memory (112, 312, 412A, 412B); wherein the processing circuitry uses closed loop control independent from the second processing circuitry to maintain the pressure of the cabin; and wherein the closed loop control is configured to maintain the pressure of the cabin at the cabin pressure setpoint based on the signal indicating the pressure of the cabin. an outflow valve (150, 350, 450A, 450B) configured to release pressure from a cabin; an electric motor configured to control a position of the outflow valve; an electric switch (202, 260, 278) configured to control the electric motor; processing circuitry (122, 320, 420A, 420B) configured to: receive a signal indicating a pressure of the cabin; in response to the electric switch being set to a hold position, determine a cabin pressure setpoint; and control the electric motor to adjust the position of the outflow valve to maintain the pressure of the cabin based on the cabin pressure setpoint; an automatic pressure control unit including second processing circuitry and a memory (112, 312, 412A, 412B); wherein the processing circuitry uses closed loop control independent from the second processing circuitry to maintain the pressure of the cabin; and wherein the closed loop control is configured to maintain the pressure of the cabin at the cabin pressure setpoint based on the signal indicating the pressure of the cabin.