mhurhangee/ep-ind-claims huggingface dataset:
A skin tightening composition comprising: a. at least one thermoplastic elastomer, b. at least one adhesive polymer, wherein the at least one adhesive polymer is present in an amount ranging from 5% to 20% by weight, relative to the total weight of the composition; c. at least one filler; and d. at least one silicone elastomer comprising at least one silicone crosspolymer dispersed in oil, wherein the at least one silicone crosspolymer is chosen from dimethicone crosspolymers, wherein the at least one silicone elastomer is present in an amount ranging from 1 % to 10% by weight, relative to the weight of the composition, wherein the at least one thermoplastic elastomer has at least two glass transition temperatures (T g). a. at least one thermoplastic elastomer, b. at least one adhesive polymer, wherein the at least one adhesive polymer is present in an amount ranging from 5% to 20% by weight, relative to the total weight of the composition; c. at least one filler; and d. at least one silicone elastomer comprising at least one silicone crosspolymer dispersed in oil, wherein the at least one silicone crosspolymer is chosen from dimethicone crosspolymers,
An optical system of multi LiDAR scanner using mirror rotation, the system comprising: a first mirror configured to form a predetermined first angle with a horizontal surface and having a first hollow hole; a light source configured to output a pulse laser from a bottom surface of the first mirror; a second mirror to be rotated with the first mirror and so arranged as to form a predetermined second angle with the first mirror in order to allow the pulse laser to advance to a measurement target by passing through the first hollow hole; a light receiving lens; a light detection part configured to convert a light signal received from the light receiving lens to an electric signal; and a motor to rotate the first mirror; characterized by at least two path control mirrors configured to reflect the pulse laser in order to form a light path of the pulse laser using a reflection surface of the second mirror; wherein the light receiving lens is configured to receive, from a bottom surface of the first mirror, a light reflected through the first mirror; the motor is configured to be arranged between the light receiving lens and the first mirror; the light source, the light receiving lens and the light detection part are arranged on a same block disposed at a bottom surface of the first mirror; and wherein the motor is configured to drive the first mirror at 360°. a first mirror configured to form a predetermined first angle with a horizontal surface and having a first hollow hole; a light source configured to output a pulse laser from a bottom surface of the first mirror; a second mirror to be rotated with the first mirror and so arranged as to form a predetermined second angle with the first mirror in order to allow the pulse laser to advance to a measurement target by passing through the first hollow hole; a light receiving lens; a light detection part configured to convert a light signal received from the light receiving lens to an electric signal; and a motor to rotate the first mirror; characterized by at least two path control mirrors configured to reflect the pulse laser in order to form a light path of the pulse laser using a reflection surface of the second mirror; wherein the light receiving lens is configured to receive, from a bottom surface of the first mirror, a light reflected through the first mirror; the motor is configured to be arranged between the light receiving lens and the first mirror; the light source, the light receiving lens and the light detection part are arranged on a same block disposed at a bottom surface of the first mirror; and wherein the motor is configured to drive the first mirror at 360°.
Device for displaying the mid-urethral angle of closure of the female urethra using nuclear magnetic resonance imaging or by means of echography in order to allow an evaluation of the risks of urine leakages, this device is constituted by: - a display element (2, 10) which is produced from a flexible material which can be sterilised and which is biocompatible without shape memory and which can be identified by means of nuclear magnetic resonance or by means of echography over the entire length thereof and which is intended to be introduced into the urethra and into the bladder, to be positioned at that location and to be retained at that location before a medical imaging examination, and to be deformed in order to automatically assume the zigzag shape of the urethra in the rest state in order to enable the measurement of the mid-urethral angle of closure, - a retention element (7, 11) in the bladder, extending the display element (2, 10) at the distal end thereof, and - a positioning element (1, 12) which is produced from a rigid sterilisable and biocompatible material which is intended to be introduced into the urethra and into the bladder in order to enable the introduction and the positioning of the display element (2, 10) and the retention element (7, 11) before a medical imaging examination and to be removed before this examination. - a display element (2, 10) which is produced from a flexible material which can be sterilised and which is biocompatible without shape memory and which can be identified by means of nuclear magnetic resonance or by means of echography over the entire length thereof and which is intended to be introduced into the urethra and into the bladder, to be positioned at that location and to be retained at that location before a medical imaging examination, and to be deformed in order to automatically assume the zigzag shape of the urethra in the rest state in order to enable the measurement of the mid-urethral angle of closure, - a retention element (7, 11) in the bladder, extending the display element (2, 10) at the distal end thereof, and - a positioning element (1, 12) which is produced from a rigid sterilisable and biocompatible material which is intended to be introduced into the urethra and into the bladder in order to enable the introduction and the positioning of the display element (2, 10) and the retention element (7, 11) before a medical imaging examination and to be removed before this examination.
Reactor vessel for suspending media particles in a fluid, the reactor vessel having a center line and comprising: a reactor bottom, a number of air injection devices each comprising a nozzle having a nozzle axis extending transversely to the center line wherein adjacent reactor bottom areas (19, 19') of the reactor bottom extend in parallel fashion along the direction of the nozzle axis, each air injection device situated near the reactor bottom in a vertical mid plane having a first side and an opposite a second side, the reactor bottom on each side of the vertical mid plane sloping downward to a lower point situated below the air injection device; a draft tube extending along the center line, substantially above the air injection devices, and the number of air injection devices extend in a direction transversely to the center line at a horizontal distance from the draft tube, characterised in that each air injection device is spaced at a predetermined distance from the lower point of the reactor bottom, and in that for each air injection device a fluid passage is defined between a lower surface of the injection device and the bottom, one or more air exit openings of the injection device being provided in the nozzle and situated at the second side of the mid plane for providing an upward air stream, wherein on the second side a larger open surface of air exit openings is present than on the first side, such that particles can travel downward at the first side of the mid plane and can move through the fluid passage to the second side of the mid plane to be transported upward by the air stream. a reactor bottom, a number of air injection devices each comprising a nozzle having a nozzle axis extending transversely to the center line wherein adjacent reactor bottom areas (19, 19') of the reactor bottom extend in parallel fashion along the direction of the nozzle axis, each air injection device situated near the reactor bottom in a vertical mid plane having a first side and an opposite a second side, the reactor bottom on each side of the vertical mid plane sloping downward to a lower point situated below the air injection device; a draft tube extending along the center line, substantially above the air injection devices, and the number of air injection devices extend in a direction transversely to the center line at a horizontal distance from the draft tube, characterised in that each air injection device is spaced at a predetermined distance from the lower point of the reactor bottom, and in that for each air injection device a fluid passage is defined between a lower surface of the injection device and the bottom, one or more air exit openings of the injection device being provided in the nozzle and situated at the second side of the mid plane for providing an upward air stream, wherein on the second side a larger open surface of air exit openings is present than on the first side, such that particles can travel downward at the first side of the mid plane and can move through the fluid passage to the second side of the mid plane to be transported upward by the air stream.
Arrangement (1, 21, 31), in particular for use as a hanging desk, in particular for use as a hanging desk suspended from a tailgate of a motor vehicle, such as a motor home, comprising a table top (2, 22, 32) and a hanging device (3, 23, 33) which can be attached to the table top (2, 22, 32) or is attached to the table top (2, 22, 32) and has at least one hanging means (4, 24, 34) for hanging the table top (2, 22, 32) on the open tailgate of the motor vehicle, in particular of the motor home, wherein the arrangement comprises a support rod for supporting the opened tailgate of the motor vehicle and the table top has in its main surface a support rod passage opening for passing the support rod through the support rod passage opening and thus through the table top, characterized in that the at least one hanging means (4, 24, 34) is formed by a cord, a rope, a strap, a wire or a chain.
An implant for a skeletal space, comprising: a first contacting member; a second contacting member; at least one first expansion compartment (32, 34); and at least one second expansion compartment (36, 38); wherein the implant is expandable from an insertion configuration to an expanded configuration, wherein the implant has a first dimension in a first direction and a second dimension in a second direction in the insertion configuration, and wherein the first direction is substantially perpendicular to the second direction, wherein the implant is configured such that: during expansion of the at least one first expansion compartment (32, 34), the at least one first expansion compartment cooperates with at least one of the first and second contacting members (12, 14) to cause the first dimension of the implant to increase without substantially causing a change in the second dimension of the implant; and during expansion of the at least one second expansion compartment (36, 38), the at least one second expansion compartment cooperates with at least one of the first and second contacting members (12, 14) to cause the second dimension of the implant to increase; characterized in that the first and second expansion compartments are each an inflatable structure. a first contacting member; a second contacting member; at least one first expansion compartment (32, 34); and at least one second expansion compartment (36, 38); wherein the implant is expandable from an insertion configuration to an expanded configuration, wherein the implant has a first dimension in a first direction and a second dimension in a second direction in the insertion configuration, and wherein the first direction is substantially perpendicular to the second direction, wherein the implant is configured such that: during expansion of the at least one first expansion compartment (32, 34), the at least one first expansion compartment cooperates with at least one of the first and second contacting members (12, 14) to cause the first dimension of the implant to increase without substantially causing a change in the second dimension of the implant; and during expansion of the at least one second expansion compartment (36, 38), the at least one second expansion compartment cooperates with at least one of the first and second contacting members (12, 14) to cause the second dimension of the implant to increase; during expansion of the at least one first expansion compartment (32, 34), the at least one first expansion compartment cooperates with at least one of the first and second contacting members (12, 14) to cause the first dimension of the implant to increase without substantially causing a change in the second dimension of the implant; and during expansion of the at least one second expansion compartment (36, 38), the at least one second expansion compartment cooperates with at least one of the first and second contacting members (12, 14) to cause the second dimension of the implant to increase; characterized in that the first and second expansion compartments are each an inflatable structure.
A system for removing a road material, the system comprising: a milling drum rotatable about a rotation axis; and a plurality of picks mounted on the milling drum, each of the plurality of picks including a pick body and a first polycrystalline diamond compact ("PDC") and a second PDC attached to the pick body, the second PDC spaced apart from the first PDC, respective centers of the first PDC and the second PDC lying substantially on a first line that is substantially parallel to the rotation axis of the milling drum, each of the first PDC and the second PDC having a substantially planar working surface and a nonlinear cutting edge at least partially surrounding the working surface. a milling drum rotatable about a rotation axis; and a plurality of picks mounted on the milling drum, each of the plurality of picks including a pick body and a first polycrystalline diamond compact ("PDC") and a second PDC attached to the pick body, the second PDC spaced apart from the first PDC, respective centers of the first PDC and the second PDC lying substantially on a first line that is substantially parallel to the rotation axis of the milling drum, each of the first PDC and the second PDC having a substantially planar working surface and a nonlinear cutting edge at least partially surrounding the working surface.
An isolating decoupler comprising: a hub; a pulley journalled to the hub; a torsion spring connected to the hub; a wrap spring connected to the torsion spring; and the wrap spring frictionally engaged with a pulley surface; characterized in that: the torsion spring is directly connected to the hub by a weld; and the wrap spring is directly connected to the torsion spring by a weld. a hub; a pulley journalled to the hub; a torsion spring connected to the hub; a wrap spring connected to the torsion spring; and the wrap spring frictionally engaged with a pulley surface; characterized in that: the torsion spring is directly connected to the hub by a weld; and the wrap spring is directly connected to the torsion spring by a weld. the torsion spring is directly connected to the hub by a weld; and the wrap spring is directly connected to the torsion spring by a weld.
Vibration absorber which can be matched variably to an interfering frequency and which can be employed in wind turbines or installations, buildings and machines having similar vibration properties, comprising a running gear, an absorber main mass (1.1) and a running device, which is attached to a retention construction or is part thereof, where the absorber main mass is mounted on the running gear or is an integral part thereof, and the running device is essentially curved in a concave manner and circular, at least in its central region, and the running gear or the absorber main mass (1.1) can be moved and displaced out of a central position or vertex position on this running device by means of wheels or rollers (1.2)(1.3)(1.7)(70.1)(70.2)(70.3)or in a non-contact manner in accordance with the vibration forces initiating the movements and effective in the direction of the running device, characterised in that the running gear or the absorber main mass (1.1) (30.6) has at least one driven, disc-shaped, rotationally symmetrical rotation mass component (1.5)(1.6)(30.7)(30.8) having an axis of rotation perpendicular to the plane of the circular track of the running device, which moves together with the absorber main mass, and the direction of rotation essentially corresponds to the respective direction of the moved running gear along the running device, where the at least one rotation mass component has a variable rotating mass (1.6) which corresponds to 1% - 30% of the absorber main mass, depending on the diameter of the rotating mass.
A non-anesthetic protective gas and a liquid anesthetic agent for use in a method of providing anesthesia and organ-protection to a subject in need thereof, said method comprising co-administering to the subject the non-anesthetic protective gas in an amount effective to provide organ protection, and the liquid anesthetic agent in an amount effective to provide anesthesia, at normobaric conditions, and wherein the non-anesthetic protective gas is argon.
A semiconductor device comprising: a Group III nitride semiconductor body (12, 16, 18); and a Nickel-rich Schottky contact on a surface of the semiconductor body, the Nickel-rich Schottky contact comprising a Nickel-rich contact metal stack; wherein the Nickel-rich contact metal stack comprises: a first Nickel layer directly on a surface of the semiconductor body; an interlayer directly on a surface of the first Nickel layer opposite the semiconductor body, the interlayer including at least one layer formed of Platinum, Palladium, or Iridium; and a second Nickel layer directly on a surface of the interlayer opposite the first Nickel layer; wherein a ratio of a total thickness of the first Nickel layer and the second Nickel layer to a thickness of the interlayer is greater than 3. a Group III nitride semiconductor body (12, 16, 18); and a Nickel-rich Schottky contact on a surface of the semiconductor body, the Nickel-rich Schottky contact comprising a Nickel-rich contact metal stack; wherein the Nickel-rich contact metal stack comprises: a first Nickel layer directly on a surface of the semiconductor body; an interlayer directly on a surface of the first Nickel layer opposite the semiconductor body, the interlayer including at least one layer formed of Platinum, Palladium, or Iridium; and a second Nickel layer directly on a surface of the interlayer opposite the first Nickel layer; a first Nickel layer directly on a surface of the semiconductor body; an interlayer directly on a surface of the first Nickel layer opposite the semiconductor body, the interlayer including at least one layer formed of Platinum, Palladium, or Iridium; and a second Nickel layer directly on a surface of the interlayer opposite the first Nickel layer; wherein a ratio of a total thickness of the first Nickel layer and the second Nickel layer to a thickness of the interlayer is greater than 3.
A compound of Formula V, wherein R 5 is hydrogen; each of R 6 and R 10 is independently a halogen; each of R 7 - R 9 is independently selected from hydrogen and halogen; and R 12 is nitrile. R 5 is hydrogen; each of R 6 and R 10 is independently a halogen; each of R 7 - R 9 is independently selected from hydrogen and halogen; and R 12 is nitrile.
A vertical-cavity surface-emitting laser ("VCSEL") comprising at least a substrate, electrical contacts, a first mirror region, a second mirror region and an active region between the mirror regions; where the mirror regions comprise distributed Bragg reflectors formed of a plurality of layers; laser emission is from at least one gallium arsenide antimonide nanostructure in the active region; and each said nanostructure contains more antimony atoms than arsenic atoms; wherein each nanostructure comprises a GaSb quantum ring, and each quantum ring is located within a GaAs quantum well. the mirror regions comprise distributed Bragg reflectors formed of a plurality of layers; laser emission is from at least one gallium arsenide antimonide nanostructure in the active region; and each said nanostructure contains more antimony atoms than arsenic atoms; wherein each nanostructure comprises a GaSb quantum ring, and each quantum ring is located within a GaAs quantum well.
Image processing method, comprising: receiving i) an image volume, ii) a 2D profile shape and iii) a propagation curve; propagating said 2D profile shape across the image volume along said propagation curve to thereby generate a sub-volume in said volume; and displaying of said sub-volume on a display device, wherein the image volume is stratified, wherein the propagation of said 2D profile shape automatically terminates at an interface between two strata in the volume so that the sub-volume does not extend across said interface. receiving i) an image volume, ii) a 2D profile shape and iii) a propagation curve; propagating said 2D profile shape across the image volume along said propagation curve to thereby generate a sub-volume in said volume; and displaying of said sub-volume on a display device, wherein the image volume is stratified, wherein the propagation of said 2D profile shape automatically terminates at an interface between two strata in the volume so that the sub-volume does not extend across said interface.
A method of polishing a sapphire surface, comprising: abrading a sapphire surface with a rotating polishing pad and a polishing composition, wherein the polishing composition comprises 1 wt.% to 50 wt.% of colloidal silica, characterized in that the colloidal silica has a particle size distribution of 5 nm to 120 nm and the ratio of the standard deviation of the particle size of the colloidal silica (σ) to the mean particle size of the colloidal silica (r) is at least 0.3. abrading a sapphire surface with a rotating polishing pad and a polishing composition, wherein the polishing composition comprises 1 wt.% to 50 wt.% of colloidal silica, characterized in that the colloidal silica has a particle size distribution of 5 nm to 120 nm and the ratio of the standard deviation of the particle size of the colloidal silica (σ) to the mean particle size of the colloidal silica (r) is at least 0.3.