mhurhangee/patent-ind-claim-en huggingface dataset:
A radar system comprising: a radio frequency, RF, circuit configured to generate a transmit signal and to receive a corresponding receive signal from a target during rainfall or snowfall conditions; and a signal processing circuit coupled to the RF circuit configured to generate an adaptive filter threshold in response to the rainfall or snowfall conditions, and to generate a valid target signal in response to a portion of the receive signal above the adaptive filter threshold, wherein the signal processing circuit comprises a plurality of pass-band Doppler-filters having a corresponding plurality of range bins, and wherein the valid target signal is generated when a target range spread of three consecutive range bins of the plurality of pass-band Doppler filters is less than 60 cm. a radio frequency, RF, circuit configured to generate a transmit signal and to receive a corresponding receive signal from a target during rainfall or snowfall conditions; and a signal processing circuit coupled to the RF circuit configured to generate an adaptive filter threshold in response to the rainfall or snowfall conditions, and to generate a valid target signal in response to a portion of the receive signal above the adaptive filter threshold, wherein the signal processing circuit comprises a plurality of pass-band Doppler-filters having a corresponding plurality of range bins, and wherein the valid target signal is generated when a target range spread of three consecutive range bins of the plurality of pass-band Doppler filters is less than 60 cm.
Quick-connection mounting system for the automotive sector and boxes in general, comprising a prismatic container , a lockable door , secured to said prismatic container by means of a hinge , at least two truncated-conical brackets , securable, at one end, to the chassis T of a vehicle, characterised in that the prismatic container comprises at least two conical tubular housings , suitable to be mutually engaged with said at least two truncated-conical brackets , each of said truncated-conical brackets being formed of a tubular , two specular half-shells able to engage with said tubular , each half-shell comprising, at its end, an elastic blocking device of the at least two truncated-conical brackets inside the at least two conical tubular housings .
A slant-adjusting unit , comprising: a first spherical plate having a flange connected to a member ; a second spherical plate having an inner curved surface in facing relation to an outer curved surface of the first spherical plate ; a third spherical plate having an outer curved surface in facing relation to an inner curved surface of the first spherical plate ; each of the spherical plates including the first, second and third spherical plates having a circular hole (211, 221 or 231) at the center thereof in order to receive a shaft portion of a bolt ; the first spherical plate , into which the shaft portion of the bolt is inserted, slidably provided between the second spherical plate and the third spherical plate ; the first spherical plate being fixed and held by the second spherical plate and the third spherical plate as a result of tightening up each other; and the bolt passing through the first spherical plate , the second spherical plate , and the third spherical plate , being connected to a female screw in a column portion having a shaft pedestal having an end surface in facing relation to an outer curved surface of the second spherical plate . a first spherical plate having a flange connected to a member ; a second spherical plate having an inner curved surface in facing relation to an outer curved surface of the first spherical plate ; a third spherical plate having an outer curved surface in facing relation to an inner curved surface of the first spherical plate ; each of the spherical plates including the first, second and third spherical plates having a circular hole (211, 221 or 231) at the center thereof in order to receive a shaft portion of a bolt ; the first spherical plate , into which the shaft portion of the bolt is inserted, slidably provided between the second spherical plate and the third spherical plate ; the first spherical plate being fixed and held by the second spherical plate and the third spherical plate as a result of tightening up each other; and the bolt passing through the first spherical plate , the second spherical plate , and the third spherical plate , being connected to a female screw in a column portion having a shaft pedestal having an end surface in facing relation to an outer curved surface of the second spherical plate .
A transmission actuator for a motor vehicle transmission device having a plurality of transmission ratios for forming gears, wherein the transmission actuator has a shifting shaft which is mounted in a rotatable manner for shifting gears and is mounted in an axially displaceable manner for selecting gears, and wherein the transmission actuator has a gate comprising a first gate part which is arranged in a fixed manner and a second gate part which is rotatable and axially displaceable, wherein one gate part has grooves and lands alternating in one direction and the other gate part has at least one element that can cooperate with one land at a time and can be moved into one groove at a time; wherein the at least one element is moved past the lands and grooves during a selection movement in a defined direction and is moved into one of the grooves during a shifting movement ; wherein a lead-in bevel is provided at least on the lands or on the element , and wherein substantially right-angled transitions are also provided, characterised in that the element has a first wall facing in the defined direction and an end face facing towards the groove , wherein the lead-in bevel is present between the end face and the first wall , and wherein the element has a second wall facing in the defined direction , wherein an essentially right-angled transition is present between the end face and the second wall , so that, in the event of a collision between element and land during the shifting movement , the second gate part can be moved further in the defined direction of the selection movement via the lead-in chamfer and the shifting movement can be continued, and then in the event of a collision between element and land during the shifting movement , the second gate part cannot be moved counter to the defined direction of the selection movement , but rather the shifting movement is stopped.
Multilayer anti-slip compact structure for individual/joint application on the forehand and/or backhand side of the hockey stick blade, wherein individual application means attaching the patch on forehand and/or backhand side of the hockey stick blade and joint application means bandaging by a tape around the entire hockey stick blade, the compact structure having on its reverse side an adhesive layer protected before use by a protective removable covering, coat or film and the adhesive layer would not leave any adhesive residues on the hockey stick blade characterized in that the multilayer anti-slip structure consists of a backing carrier (A) and anti-slip layer (B) applied on said backing carrier (A), wherein the backing carrier (A) is formed by the first layer with thickness max. 0.3 mm as measured in accordance with ISO 5084 standard and tensile strength min. 400 N as measured in accordance with ISO 13934-1 standard and weight max. 130 g/m 2 , wherein the first layer is formed by a net structure from fibres containing cotton, viscose, glass fibres or plastic fibres, preferably from polyester, or their combination; and wherein the net structure from fibres has waterproof or water repellent impregnation and/or thermal treatment in order to achieve dimensional stabilization; on the first layer, the second resin or glue layer with thickness max. 0.1 mm containing polyurethane or polyacrylate, or their combination is applied; wherein the second resin or glue layer is arranged at least between the first layer and the anti-slip layer (B), the anti-slip layer (B) is formed by the third resin layer containing epoxide and/or phenol with thickness max. 0.1 mm and weight max. 250 g/m 2 and coarsening grains , and in that the multilayer anti-slip structure has a shape of a tape or patch.
A coupler telescopic apparatus, comprising a housing and a drawbar capable of extending and retracting along the housing , the housing being sleeved outside the drawbar ; the coupler telescopic apparatus being characterized in that a limiting block is fixedly arranged on an outer side face of the drawbar , a locking ring capable of coming into contact with the limiting block is sleeved inside the housing , and the locking ring is coaxial with the housing and rotatably connected to the housing ; a through groove is axially formed on an inner surface of the locking ring , and the through groove corresponds to the limiting block in shape, so that the limiting block passes through the through groove when the through groove is aligned with the limiting block , and then an extension of the drawbar is locked by rotating the locking ring to block the limiting block after the extension of the drawbar is completed; a telescopic cylinder is arranged in the housing , and two ends of the telescopic cylinder are connected to the housing and the drawbar , respectively, to drive the drawbar to extend or retract along the housing .
A test panel for testing for food intolerance in a patient diagnosed with, or suspected of having, migraine headaches, the test panel comprising: a plurality of distinct food preparations, wherein each food preparation is independently coupled to an individually addressable solid carrier; wherein the plurality of distinct food preparations consists of cucumber, tomato, malt, cauliflower, broccoli, peach, cantaloupe, orange, egg, tea, cabbage, green pepper, safflower, grapefruit, Swiss cheese, chocolate, wheat, cow's milk, rye, baker's yeast, cottage cheese, brewer's yeast, oat, honey, almond, sweet potato, onion, lemon, cheddar cheese, butter, rice, cane sugar, parsley, mustard, tobacco, goat's milk, American cheese, yogurt, eggplant, black walnut, spinach, cola nut, avocado, corn, garlic, pineapple, strawberry, sunflower seed, buck wheat, beef, potato, and mushroom. a plurality of distinct food preparations, wherein each food preparation is independently coupled to an individually addressable solid carrier;
An apparatus for endoscopic operations, the apparatus comprising: a cannulating device to be introduced through an internal lumen of an endoscope via a biopsy port ; the cannulating device having an elongated body comprising a guidewire lumen configured to receive a guidewire therein; and a slit extending over at least a portion of the length of the elongated body from a distal tip to a proximal or distal position of the elongated body , wherein the natural width of the slit of a distal portion of the cannulating device is smaller than the natural width of the slit of the remaining portion of the cannulating device . a cannulating device to be introduced through an internal lumen of an endoscope via a biopsy port ; the cannulating device having an elongated body comprising a guidewire lumen configured to receive a guidewire therein; and a slit extending over at least a portion of the length of the elongated body from a distal tip to a proximal or distal position of the elongated body , wherein the natural width of the slit of a distal portion of the cannulating device is smaller than the natural width of the slit of the remaining portion of the cannulating device .
A helmet removal system to facilitate removal of a helmet , comprising: a removably detachable helmet liner configured to be positioned in a helmet including: a central portion configured to receive a user's head therein; a frontal portion integrally formed with the central portion, and configured to engage a user's forehead, to apply a stabilizing frontal force to the user's forehead during helmet removal; dual side tab portions integrally formed with the central portion and configured to be moved between a folded position inside of the helmet to an unfolded position; a top portion extending between opposing edges of the central portion and configured to engage a top portion of the users head; and, a rear portion integrally connected to the central portion to provide a balancing engagement with the back of a user's head; wherein the respective outer surfaces of the dual side tab portions are configured to engage the lower edge of the helmet, when lateral pulling forces are applied to the dual side tab portions of the helmet liner, applying a longitudinal force to the lower edge in a first direction forcing the helmet away from the user's head and the top portion of the helmet liner applies a longitudinal force on the user's head in an opposing second direction. a central portion configured to receive a user's head therein; a frontal portion integrally formed with the central portion, and configured to engage a user's forehead, to apply a stabilizing frontal force to the user's forehead during helmet removal; dual side tab portions integrally formed with the central portion and configured to be moved between a folded position inside of the helmet to an unfolded position; a top portion extending between opposing edges of the central portion and configured to engage a top portion of the users head; and, a rear portion integrally connected to the central portion to provide a balancing engagement with the back of a user's head; wherein the respective outer surfaces of the dual side tab portions are configured to engage the lower edge of the helmet, when lateral pulling forces are applied to the dual side tab portions of the helmet liner, applying a longitudinal force to the lower edge in a first direction forcing the helmet away from the user's head and the top portion of the helmet liner applies a longitudinal force on the user's head in an opposing second direction.
An optical fiber unit for air-blown installations comprising: a number of optical conductors , a first layer of resin material which substantially completely embeds said optical conductors , a second layer of resin material radially outer to the first layer of resin material, and a sheath of a thermoplastic material, wherein said second layer of resin material has a Secant Modulus higher than a Secant Modulus of said first layer of resin material, wherein the Secant Modulus is defined as the slope of a line between the 0 point and a point at 2.5% strain in the stress-strain curve of the cured resin material, tested at 25 °C and 50% Relative Humidity, and wherein said sheath of a thermoplastic material is over and in close contact with said second layer of resin material, and wherein a radial thickness of said sheath is between 100 μm and 250 μm. a number of optical conductors , a first layer of resin material which substantially completely embeds said optical conductors , a second layer of resin material radially outer to the first layer of resin material, and a sheath of a thermoplastic material, wherein said second layer of resin material has a Secant Modulus higher than a Secant Modulus of said first layer of resin material, wherein the Secant Modulus is defined as the slope of a line between the 0 point and a point at 2.5% strain in the stress-strain curve of the cured resin material, tested at 25 °C and 50% Relative Humidity, and wherein said sheath of a thermoplastic material is over and in close contact with said second layer of resin material, and wherein a radial thickness of said sheath is between 100 μm and 250 μm.
Absorbing/tensioning device for a cable of a lifeline, comprising a tensioning device for tensioning said cable and an absorbing assembly , for absorbing a pulsed load, - said tensioner comprising means for tensioning said cable ; and - said absorber comprising: - a first support , forming an integral part of said tensioner ; - a second support , connected to a part for fixing said absorbing/tensioning device to a structure; - two coils of material that is at least partially irreversibly deformable, substantially parallel to one another, each coil comprising a first end connected to said first support and a second end connected to said second support. - said tensioner comprising means for tensioning said cable ; and - said absorber comprising: - a first support , forming an integral part of said tensioner ; - a second support , connected to a part for fixing said absorbing/tensioning device to a structure; - two coils of material that is at least partially irreversibly deformable, substantially parallel to one another, each coil comprising a first end connected to said first support and a second end connected to said second support. - a first support , forming an integral part of said tensioner ; - a second support , connected to a part for fixing said absorbing/tensioning device to a structure; - two coils of material that is at least partially irreversibly deformable, substantially parallel to one another, each coil comprising a first end connected to said first support and a second end connected to said second support.
A silicon-based lithium storage material, comprising a core comprising a first component, comprising Si with a valence of 0-4, with the proviso that 0≤C Si(1-4) /C Si ≤1, where C Si(1-4) is a molar amount of element silicon with a valence of 1-4, and C Si is a molar amount of element silicon with a valence of 0; and a second component, comprising a doping element R, where the doping element R is an element that accepts electrons, with the proviso that 0≤C R /C Si(0-4) ≤1.5, where C R is a molar amount of the doping element R, and C Si(0-4) is a molar amount of element silicon with a valence of 0-4; a first shell coating the core, wherein the first shell is a carbon-containing material that has a conductivity lager than 10 2 S/m; a second shell coating the first shell, wherein the second shell is a metal oxide that has a dielectric constant of 10-40, said metal oxide is selected from MgO, Al 2 O 3 and TiO 2 , characterized in that , the first shell is a graphitized carbon coating; the second shell has a thickness of 5-20 nm; and Si with a valence of 0-4 and the doping element R are uniformly distributed. a core comprising a first component, comprising Si with a valence of 0-4, with the proviso that 0≤C Si(1-4) /C Si ≤1, where C Si(1-4) is a molar amount of element silicon with a valence of 1-4, and C Si is a molar amount of element silicon with a valence of 0; and a second component, comprising a doping element R, where the doping element R is an element that accepts electrons, with the proviso that 0≤C R /C Si(0-4) ≤1.5, where C R is a molar amount of the doping element R, and C Si(0-4) is a molar amount of element silicon with a valence of 0-4; a first component, comprising Si with a valence of 0-4, with the proviso that 0≤C Si(1-4) /C Si ≤1, where C Si(1-4) is a molar amount of element silicon with a valence of 1-4, and C Si is a molar amount of element silicon with a valence of 0; and a second component, comprising a doping element R, where the doping element R is an element that accepts electrons, with the proviso that 0≤C R /C Si(0-4) ≤1.5, where C R is a molar amount of the doping element R, and C Si(0-4) is a molar amount of element silicon with a valence of 0-4; a first shell coating the core, wherein the first shell is a carbon-containing material that has a conductivity lager than 10 2 S/m; a second shell coating the first shell, wherein the second shell is a metal oxide that has a dielectric constant of 10-40, said metal oxide is selected from MgO, Al 2 O 3 and TiO 2 , characterized in that , the first shell is a graphitized carbon coating; the second shell has a thickness of 5-20 nm; and Si with a valence of 0-4 and the doping element R are uniformly distributed. the first shell is a graphitized carbon coating; the second shell has a thickness of 5-20 nm; and Si with a valence of 0-4 and the doping element R are uniformly distributed.
A method for preparing an artificial hepatocyte comprising the following steps: the differentiation induction step 1 of culturing an iPS cell in a differentiation induction medium I containing activin A, the differentiation induction step 2 of culturing a cell obtained in the differentiation induction step 1 in a differentiation induction medium II containing bone morphogenetic protein 4 (BMP4) and fibroblast growth factor 2 (FGF2); and the differentiation induction step 3 of culturing a cell obtained in the differentiation induction step 2 in a differentiation induction medium III containing hepatocyte growth factor (HGF), oncostatin M, dexamethasone, and N,N'-(methylenebis)(4,1-phenylene)diacetamide (FH1) and 2-N-(5-chloro-2-methylphenyl)(methylsulfonamido)-N-(2,6-difluorophenyl)acetamide (FPH1) to obtain an artificial hepatocyte. the differentiation induction step 1 of culturing an iPS cell in a differentiation induction medium I containing activin A, the differentiation induction step 2 of culturing a cell obtained in the differentiation induction step 1 in a differentiation induction medium II containing bone morphogenetic protein 4 (BMP4) and fibroblast growth factor 2 (FGF2); and the differentiation induction step 3 of culturing a cell obtained in the differentiation induction step 2 in a differentiation induction medium III containing hepatocyte growth factor (HGF), oncostatin M, dexamethasone, and N,N'-(methylenebis)(4,1-phenylene)diacetamide (FH1) and 2-N-(5-chloro-2-methylphenyl)(methylsulfonamido)-N-(2,6-difluorophenyl)acetamide (FPH1) to obtain an artificial hepatocyte.
A solid seismic streamer cable, comprising a core part, the core part comprising a buffer layer , wherein the buffer layer is provided with cut-outs at selected locations along the cable; and a hydrophone (H) arranged in one of the cut-outs , the hydrophone (H) comprising a split-element sensor base and an optical fibre sensor coil , characterized in that the split-element sensor base comprises a pair of inner cylindrical parts , and a pair of compliant outer cylindrical parts , wherein - the inner cylindrical parts are assembled together in the cut-out of the buffer layer to form an inner cylinder, - the outer cylindrical parts are assembled together onto the inner cylinder to form an outer cylinder in the cut-out of the buffer layer , wherein the outer cylindrical parts are rotated with respect to the inner cylindrical parts , wherein the inner and outer cylindrical parts form an air filled cavity , and wherein an optical fibre of the optical fibre sensor coil is wound onto the outer surfaces of the outer cylindrical parts . a core part, the core part comprising a buffer layer , wherein the buffer layer is provided with cut-outs at selected locations along the cable; and a hydrophone (H) arranged in one of the cut-outs , the hydrophone (H) comprising a split-element sensor base and an optical fibre sensor coil , characterized in that the split-element sensor base comprises a pair of inner cylindrical parts , and a pair of compliant outer cylindrical parts , wherein - the inner cylindrical parts are assembled together in the cut-out of the buffer layer to form an inner cylinder, - the outer cylindrical parts are assembled together onto the inner cylinder to form an outer cylinder in the cut-out of the buffer layer , wherein the outer cylindrical parts are rotated with respect to the inner cylindrical parts , - the inner cylindrical parts are assembled together in the cut-out of the buffer layer to form an inner cylinder, - the outer cylindrical parts are assembled together onto the inner cylinder to form an outer cylinder in the cut-out of the buffer layer , wherein the outer cylindrical parts are rotated with respect to the inner cylindrical parts , wherein the inner and outer cylindrical parts form an air filled cavity , and wherein an optical fibre of the optical fibre sensor coil is wound onto the outer surfaces of the outer cylindrical parts .