mhurhangee/ep-ind-claims huggingface dataset:
A compressor unit of a compressor for compressing refrigerant comprising a drive device, in particular a drive shaft, for driving one or more pistons that are arranged in a radial direction and that can be moved back and forth in extension and retraction movements in corresponding cylinder bores, wherein the drive device is in operative engagement with an eccentric that controls the extension movement of the pistons, wherein the eccentric also controls the retraction movement of the pistons, characterized in that the eccentric has an operative eccentric section by means of which it is, via a bearing, in operative engagement with one or more connecting rods, in particular operative connecting rod sections, of the respective connecting rods, wherein the operative connecting rod sections are arranged on the bearing by means of a operative connecting rod section seat, wherein the movements of the connecting rods are disengaged from each other, wherein the operative connecting rod sections 38 that are designed to correspond with the circular outer perimeter of the bearing 40 and are shaped as a circular segment on their side facing the bearing have, at their end facing the bearing an extension that widens in an axial direction such that they are arranged on the bearing by means of two shells that are designed with an L-shaped cross-section and that form the operative connecting rod section seat, wherein the compressor unit is provided for CO 2 as a refrigerant, the compressor unit comprises a stroke/bore ratio of 0.3 to 1, and the eccentric is a component of the drive shaft. the eccentric has an operative eccentric section by means of which it is, via a bearing, in operative engagement with one or more connecting rods, in particular operative connecting rod sections, of the respective connecting rods, wherein the operative connecting rod sections are arranged on the bearing by means of a operative connecting rod section seat, wherein the movements of the connecting rods are disengaged from each other, wherein the operative connecting rod sections 38 that are designed to correspond with the circular outer perimeter of the bearing 40 and are shaped as a circular segment on their side facing the bearing have, at their end facing the bearing an extension that widens in an axial direction such that they are arranged on the bearing by means of two shells that are designed with an L-shaped cross-section and that form the operative connecting rod section seat, wherein the compressor unit is provided for CO 2 as a refrigerant, the compressor unit comprises a stroke/bore ratio of 0.3 to 1, and the eccentric is a component of the drive shaft.
A filtration system comprising: a catheters comprising a tubular element having a proximal end and a distal end, a lumen extending through the tubular element, and an expandable structure mounted toward the distal end on the exterior of the tubular element, wherein the expandable structure comprises a first filter element comprising a first filter basket and having an opening into the first filter basket oriented toward the distal end of the catheter; and a filter device comprising: a guide structure; and a second filter element mounted on the guide structure comprising a second filter basket having an opening into the second filter basket with the opening of the second filter basket oriented toward the proximal end of the catheter, a frame with a structure connecting the second filter basket to the guide structure and a strut at a position to collapse the filter upon contact with a sheath or catheter advanced in a proximal direction over the guide structure. wherein the lumen of the catheter is suitable for the delivery of the second filter element mounted on the guide structure. a catheters comprising a tubular element having a proximal end and a distal end, a lumen extending through the tubular element, and an expandable structure mounted toward the distal end on the exterior of the tubular element, wherein the expandable structure comprises a first filter element comprising a first filter basket and having an opening into the first filter basket oriented toward the distal end of the catheter; and a filter device comprising: a guide structure; and a second filter element mounted on the guide structure comprising a second filter basket having an opening into the second filter basket with the opening of the second filter basket oriented toward the proximal end of the catheter, a frame with a structure connecting the second filter basket to the guide structure and a strut at a position to collapse the filter upon contact with a sheath or catheter advanced in a proximal direction over the guide structure. a guide structure; and a second filter element mounted on the guide structure comprising a second filter basket having an opening into the second filter basket with the opening of the second filter basket oriented toward the proximal end of the catheter, a frame with a structure connecting the second filter basket to the guide structure and a strut at a position to collapse the filter upon contact with a sheath or catheter advanced in a proximal direction over the guide structure. wherein the lumen of the catheter is suitable for the delivery of the second filter element mounted on the guide structure.
Switch operating device for operating a switch by four possible types (111 to 114) of non-tactile translation gestures that are to be performed with a part emitting heat, wherein the switch operation device comprises a gesture sensor that is adapted to detect heat emitted by the part during performing one of the types (111 to 114) of the translation gestures by means of at least four pixels (21 to 24) that are arranged next to each other and to output a signal (51 to 54) per pixel (21 to 24), wherein each of the pixels (21 to 24) comprises a thin film out of pyroelectric sensitive material, wherein the signal (51 to 54) has a signal deflection corresponding to the temporal intensity curve of the heat detected by the thin film of the corresponding pixel (21, 22, 23, 24), wherein the signal operation device comprises an actuator that is adapted to control the switch, and wherein the signal operating device comprises a signal processing unit that is adapted to determine the performance of one of the types (111 to 114) of the translation gestures out of the temporal succession of the signal deflections and to control the actuator for operating the switch as soon as the performance of one of the types (111 to 114) of the translation gestures is determined, wherein a fist type of the translation gestures is defined by a movement of the part in a longitudinal direction, a second type of the translation gestures is defined by a movement of the part against the longitudinal direction, a third type of the translation gestures is defined by a movement of the part in a transverse direction deviating from the longitudinal direction and a fourth type of the translation gestures is defined by a movement of the part against the transverse direction, and wherein four of the pixels (21 to 24) are respectively arranged in one of the corners of a convex tetragon, wherein one of the diagonals of the tetragon is substantially parallel to the longitudinal direction and the other diagonal of the tetragon is substantially parallel to the transverse direction.
An in vitro method for the detection of heparin-induced thrombocytopenia antibodies (HIT Abs) in a biological sample comprising i) providing a solid phase support, wherein said solid support is coated with cells or cell membranes on the surface, ii) binding of platelet factor 4 to said cells or cell membranes on the solid phase support, iii) incubating the solid phase support of step ii) with a biological sample, iv) binding of HIT Abs which are present in said biological sample to PF4 on said cells or cell membranes on the solid phase support, v) adhering a secondary anti-human antibody, which is preferably labeled and is capable of binding to the bound HIT Abs on said cells on the solid phase support, and vi) detecting the presence of the secondary anti-human antibody, wherein the detection of said secondary anti-human antibody is a positive indicator for the presence of HIT Abs in the biological sample, characterized in that said cells or cell membranes on the solid phase support, are cancer cells or membranes from cancer cells. i) providing a solid phase support, wherein said solid support is coated with cells or cell membranes on the surface, ii) binding of platelet factor 4 to said cells or cell membranes on the solid phase support, iii) incubating the solid phase support of step ii) with a biological sample, iv) binding of HIT Abs which are present in said biological sample to PF4 on said cells or cell membranes on the solid phase support, v) adhering a secondary anti-human antibody, which is preferably labeled and is capable of binding to the bound HIT Abs on said cells on the solid phase support, and vi) detecting the presence of the secondary anti-human antibody,
A system, comprising: a sensor system configured to capture an image of objects in a first location having a barrier including an inside surface and an opposing outside surface; a sensor system positioner coupled to the inside surface of the barrier and configured to position the sensor system in a XY dimension; eyewear positioned in a second location including the barrier separating the first location from the second location, comprising: a frame; an optical member supported by the frame; a display coupled to the optical member; and a processor configured to: determine a location (x, y, z) on the outside surface of the barrier that the eyewear is facing along a line of site defined between the eyewear and the location (x, y, z); control the sensor system positioner to position the sensor system to the location (x, y, z) on the inside surface of the barrier; and display the image captured by the sensor system on the eyewear display. a sensor system configured to capture an image of objects in a first location having a barrier including an inside surface and an opposing outside surface; a sensor system positioner coupled to the inside surface of the barrier and configured to position the sensor system in a XY dimension; eyewear positioned in a second location including the barrier separating the first location from the second location, comprising: a frame; an optical member supported by the frame; a display coupled to the optical member; and a processor configured to: determine a location (x, y, z) on the outside surface of the barrier that the eyewear is facing along a line of site defined between the eyewear and the location (x, y, z); control the sensor system positioner to position the sensor system to the location (x, y, z) on the inside surface of the barrier; and display the image captured by the sensor system on the eyewear display. a frame; an optical member supported by the frame; a display coupled to the optical member; and a processor configured to: determine a location (x, y, z) on the outside surface of the barrier that the eyewear is facing along a line of site defined between the eyewear and the location (x, y, z); control the sensor system positioner to position the sensor system to the location (x, y, z) on the inside surface of the barrier; and display the image captured by the sensor system on the eyewear display. determine a location (x, y, z) on the outside surface of the barrier that the eyewear is facing along a line of site defined between the eyewear and the location (x, y, z); control the sensor system positioner to position the sensor system to the location (x, y, z) on the inside surface of the barrier; and display the image captured by the sensor system on the eyewear display.
A method of enhancing and regenerating durable antimicrobial activity of the surface of an article, wherein said method comprises the steps in sequence of: a. providing, on the surface of an article on which durable antimicrobial activity is desired, a polymer doped with a metal derivative, b. exposing the polymer doped with a metal derivative to a source of aqueous hydrogen peroxide for a time sufficient to permit an antimicrobially-enhancing amount of hydrogen peroxide to be sequestered thereon, and thereafter, c. removing the source of aqueous hydrogen peroxide, wherein said metal derivative comprises 1% to 50% (w/w) of the weight of the doped polymer, wherein said metal derivative is a hydroxide, an oxide, or a peroxide of a metal selected from the group consisting of zinc, magnesium, titanium, and zirconium, wherein said polymer doped with said metal derivative has been determined to be capable of sequestering hydrogen peroxide when exposed to said source of aqueous hydrogen peroxide; whereby said antimicrobial activity, when tested using ASTM Standard Method E2180 at least 24 hours after said removal of the source of hydrogen peroxide, provides at least a 3-log greater reduction of viable Escherichia coli bacteria than that of a corresponding surface of said polymer doped with said metal derivative which has not been exposed to hydrogen peroxide, characterized in that the water absorbency of said polymer is between 0.5% and 20% (w/w). a. providing, on the surface of an article on which durable antimicrobial activity is desired, a polymer doped with a metal derivative, b. exposing the polymer doped with a metal derivative to a source of aqueous hydrogen peroxide for a time sufficient to permit an antimicrobially-enhancing amount of hydrogen peroxide to be sequestered thereon, and thereafter, c. removing the source of aqueous hydrogen peroxide,
A radiation shield (810, 850) comprising a hydride and a thermoplastic or thermosetting polymer binder, characterised in that the hydride is selected from one or more of ammonia borane, ammonium borohydride, methylammonium borohydride, an ammoniate of lithium borohydride, a methyl amine borane, ammonia triborane, beryllium borohydride, ammonium octahydrotriborane, lithium borohydride, tetramethyl ammonium borohydride and beryllium hydride, wherein the radiation shield further comprises a polymer layer or metallised polymer layer, said layer being gas or moisture impermeable and enveloping the hydride.
Use of an ethylene-propylene-diene copolymer (EPDM) composition as a moulding material for sealing materials having HFO-1234yf resistance, wherein said EPDM composition is formed by crosslinking using an organic peroxide; and wherein the EPDM composition contains a plasticizer in an amount of 5 to 40 parts by weight based on 100 parts by weight of EPDM; and wherein the plasticizer is a paraffinic oil or naphthenic oil in which the absolute value of the difference between its solubility parameter value δ and the solubility parameter value δ of EPDM is 0.61 (J/cm 3) 1/2 (0.3 (cal/cm 3) 1/2) or less; and wherein the composition is free of an ether ester plasticizer; and wherein the solubility parameter value δ is determined by the formula δ = ρΣ ⁢ F / M wherein ∑F is the total of all F values of atoms and groups in molecules or repeating units, wherein the F value is a molar attraction constant in (J/cm 3) 1/2 /mol ((cal/cm 3) 1/2 /mol) at 25°C; M is the molecular weight or the molecular weight of repeating units and ρ is the molecular density. wherein ∑F is the total of all F values of atoms and groups in molecules or repeating units, wherein the F value is a molar attraction constant in (J/cm 3) 1/2 /mol ((cal/cm 3) 1/2 /mol) at 25°C; M is the molecular weight or the molecular weight of repeating units and ρ is the molecular density.
A leak detector (90, 100) for detecting leaked liquid, the leak detector comprising: a flexible and elongate fastener (94, 106) configured to fit around a liquid containing pipe to thereby attach the leak detector to the liquid containing pipe; a housing (92, 96, 102) containing electrical circuitry (44, 46, 48, 60); and a leak sensor comprised in at least one of the fastener and the housing, the leak sensor being configured to sense liquid leaking from the liquid containing pipe, the electrical circuitry being operative to detect a leak in dependence on an output from the leak sensor, wherein the leak detector (90, 100) is configured such that the housing (92, 96, 102) and the fastener (94, 106) are abreast, characterised in that the fastener is constituted by a flexible printed circuit board (94, 106), and wherein a liquid sensing part of the leak sensor comprises two spaced apart electrically conducting elements, the two spaced apart electrically conducting elements formed on the flexible printed circuit board; and wherein the electrical circuitry is supported on the same flexible printed circuit board (92, 94, 102, 106) on which the two spaced apart electrically conducting elements are formed. a flexible and elongate fastener (94, 106) configured to fit around a liquid containing pipe to thereby attach the leak detector to the liquid containing pipe; a housing (92, 96, 102) containing electrical circuitry (44, 46, 48, 60); and a leak sensor comprised in at least one of the fastener and the housing, the leak sensor being configured to sense liquid leaking from the liquid containing pipe, the electrical circuitry being operative to detect a leak in dependence on an output from the leak sensor, wherein the leak detector (90, 100) is configured such that the housing (92, 96, 102) and the fastener (94, 106) are abreast, characterised in that the fastener is constituted by a flexible printed circuit board (94, 106), and wherein a liquid sensing part of the leak sensor comprises two spaced apart electrically conducting elements, the two spaced apart electrically conducting elements formed on the flexible printed circuit board; and wherein the electrical circuitry is supported on the same flexible printed circuit board (92, 94, 102, 106) on which the two spaced apart electrically conducting elements are formed.
Use of a quantity of one or more water-soluble calcium salts and a quantity of glass particles for preparing platelet releasate from a sample of a platelet-rich blood composition obtained from a subject, wherein said quantity of the one or more water-soluble calcium salts is from 1.0 μmol per ml to 12.0 μmol per ml of said sample and said quantity of glass particles is from 0.010 g per ml to 0.60 g per ml of said sample.
A method of building a tire carcass on a tire building drum, the method comprising the steps of: applying one or more tire building components (120, 130, 140, 150, 170, 180) onto a tire building drum forming a cylindrically shaped tire carcass; placing a first and second bead onto the tire carcass so that the lateral ends of the tire carcass extend axially outwardly of the respective bead; radially expanding a first and second bead lock mechanism (110, 112) into engagement with a respective first and second bead; characterized in that the method further comprises the steps of: inflating the carcass under a pressure of less than 400 mbar into engagement with a belt and tread package while moving the beads axially inward; and continuing to move the beads axially inwardly and then turning up the outer lateral ends of the tire carcass about the respective first and second bead. applying one or more tire building components (120, 130, 140, 150, 170, 180) onto a tire building drum forming a cylindrically shaped tire carcass; placing a first and second bead onto the tire carcass so that the lateral ends of the tire carcass extend axially outwardly of the respective bead; radially expanding a first and second bead lock mechanism (110, 112) into engagement with a respective first and second bead; characterized in that the method further comprises the steps of: inflating the carcass under a pressure of less than 400 mbar into engagement with a belt and tread package while moving the beads axially inward; and continuing to move the beads axially inwardly and then turning up the outer lateral ends of the tire carcass about the respective first and second bead. inflating the carcass under a pressure of less than 400 mbar into engagement with a belt and tread package while moving the beads axially inward; and continuing to move the beads axially inwardly and then turning up the outer lateral ends of the tire carcass about the respective first and second bead.
A method for production of terephthalic acid using a high polymerization degree polyethylene terephthalate having an intrinsic viscosity of 0.75 dl/g or more, the method comprising: (i) introducing polyethylene terephthalate having a polymerization degree of 0.75 dl/g or more into a continuous reactor in the form of an extruder, and then heating and pressurizing the same to prepare a fluidal polyethylene terephthalate; (ii) introducing a mixed slurry prepared by mixing an alkaline material (abbrev. to "alkali") containing an alkali-metal, a weak acid salt of the alkali-metal and ethylene glycol together into an internal position of the continuous reactor, through which the fluidal polyethylene terephthalate passes, and implementing neat reaction of the fluidal polyethylene terephthalate with the mixed slurry in the continuous reactor to prepare alkali-metal terephthalate; and (iii) dissolving the prepared alkali-metal terephthalate in water, removing foreign substances through filtration and centrifugation, adding acid to the alkali-metal terephthalate dissolved in water and reacting the same, thereby producing terephthalic acid. (i) introducing polyethylene terephthalate having a polymerization degree of 0.75 dl/g or more into a continuous reactor in the form of an extruder, and then heating and pressurizing the same to prepare a fluidal polyethylene terephthalate; (ii) introducing a mixed slurry prepared by mixing an alkaline material (abbrev. to "alkali") containing an alkali-metal, a weak acid salt of the alkali-metal and ethylene glycol together into an internal position of the continuous reactor, through which the fluidal polyethylene terephthalate passes, and implementing neat reaction of the fluidal polyethylene terephthalate with the mixed slurry in the continuous reactor to prepare alkali-metal terephthalate; and (iii) dissolving the prepared alkali-metal terephthalate in water, removing foreign substances through filtration and centrifugation, adding acid to the alkali-metal terephthalate dissolved in water and reacting the same, thereby producing terephthalic acid.
Harvesting device having a plurality of blades (2, 2', 2") arranged in a plurality of axially displaced rows (13, 13', 13") attached to a rotatably mounted mounting member, wherein the rows (13, 13', 13") are configured to cut and/or pick up elements in the ground, wherein the mounting member is provided with one or more displacement members configured to radially displace elements that are arranged between adjacent rows (13, 13', 13") due to rotation of the mounting member, characterised in that the blades (2, 2', 2") of one row (13, 13', 13") are angularly displaced relative to the adjacent row (13, 13', 13"), and in that the distal width (W 2) of the blade is larger than the distance between the distal edges of adjacent blades (2, 2").