mhurhangee/ep-ind-claims huggingface dataset:
Compressed tablet/pellet producing method for nanoparticulate compressed tablets/pellets from synthetic and/or natural materials comprising the steps of: - producing a fine-ground powder (p) with grain size <75 μm and - pressing at least an aliquot thereof into a tablet/pellet (t) in a high pressure press, wherein between the above-mentioned steps: - first a wet grinding of fine-ground powder (p) is carried out in a grinding arrangement, jetmill grinding arrangement and/or high-energy ball mill grinding arrangement to produce a ground material (p M); - subsequently, a transferring and drying, thermal drying or freeze-drying of the ground material (p M) to a nanopowder (p MG) occurs and - then a re-homogenizing of the dried nanopowder (P MGR) takes place, wherein - the at least one aliquot for pressing of the dried and re-homogenized nanopowder (p MG) is selected, - pressing takes place without addition of binder, and - a nanopowder (p MG) with grain size in the range of 30-150 nm is formed. - producing a fine-ground powder (p) with grain size <75 μm and - pressing at least an aliquot thereof into a tablet/pellet (t) in a high pressure press, wherein between the above-mentioned steps: - first a wet grinding of fine-ground powder (p) is carried out in a grinding arrangement, jetmill grinding arrangement and/or high-energy ball mill grinding arrangement to produce a ground material (p M); - subsequently, a transferring and drying, thermal drying or freeze-drying of the ground material (p M) to a nanopowder (p MG) occurs and - then a re-homogenizing of the dried nanopowder (P MGR) takes place, wherein - the at least one aliquot for pressing of the dried and re-homogenized nanopowder (p MG) is selected, - pressing takes place without addition of binder, and - a nanopowder (p MG) with grain size in the range of 30-150 nm is formed. - first a wet grinding of fine-ground powder (p) is carried out in a grinding arrangement, jetmill grinding arrangement and/or high-energy ball mill grinding arrangement to produce a ground material (p M); - subsequently, a transferring and drying, thermal drying or freeze-drying of the ground material (p M) to a nanopowder (p MG) occurs and - then a re-homogenizing of the dried nanopowder (P MGR) takes place, wherein - the at least one aliquot for pressing of the dried and re-homogenized nanopowder (p MG) is selected, - pressing takes place without addition of binder, and - a nanopowder (p MG) with grain size in the range of 30-150 nm is formed.
Bushing assembly for a positive displacement rotary pump, arranged to be inserted into an internal cavity of a positive displacement rotary pump, axially floating therewithin, and to support the ends of a pair of shafts bearing the rotors of said positive displacement rotary pump; said bushing assembly comprising an inner face, facing, while in use, the rotors; an opposed external face; wherein, while in use, the bushing assembly is free to axially slide within the internal cavity due to fluid pressures acting on the inner and external faces (11; 12); the bushing assembly further comprising: a lateral surface which connects the two inner and outer faces, said lateral surface being arranged to be coupled within the inner chamber with a first portion facing a suction side and a second portion facing a discharge side; at least one compensation tank (15; 16) on the first portion of said lateral surface, in a position closer to the inner face than to the outer one; and at least one bleed channel which connects said compensation tank (15; 16) to the second portion of the lateral surface (13 characterised in that the at least one compensation tank (15; 16) is laterally closed on both sides, i.e. it does not open on the inner face nor on the external face of the bushing assembly.
An instrument for the manipulation and insertion of an osteosynthesis clip, the osteosynthesis clip including a base (103, 104) having a thickness and at least first and second flanges (107, 108) extending from the base and having a thickness, the instrument comprising: a first distal end; a second distal end attached to and separable from the first distal end; at least a first jaw attached to the first distal end and dimensioned to receive the thickness of at least one of (i) a first portion of the base and (ii) the first flange; the instrument being characterized in that it further comprises at least a pair of second jaws extending from the second distal end and dimensioned to receive the thickness of at least one of (i) a second portion of the base and (ii) the second flange, wherein the pair of second jaws are moveable in a distal direction to a plurality of positions at a desired distance from the second distal end. a first distal end; a second distal end attached to and separable from the first distal end; at least a first jaw attached to the first distal end and dimensioned to receive the thickness of at least one of (i) a first portion of the base and (ii) the first flange;
An implant delivery tube assembly for loading and delivering an implant, wherein the implant delivery tube assembly comprises an outer tube and a sheath sequentially from a proximal end to a distal end thereof, an inner cavity of the sheath is adapted to receive the implant, the sheath is located at a distal end of the outer tube, wherein the sheath has a telescopic structure, and the outer tube is capable of driving the sheath to perform a telescopic movement, so as to make the sheath longer or shorter; wherein the sheath comprises at least two sheath segments, the at least two sheath segments are sequentially sleeved one another from inside to outside, and any two adjacent sheath segments are movably connected, such that the sheath forms the cylindrical telescopic structure; wherein the at least two sheath segments comprise at least a distal sheath segment and a proximal sheath segment, an inner diameter of the distal sheath segment is greater than an inner diameter of the proximal sheath segment, when the sheath is in a fully extended state, a distal end of the distal sheath segment forms the most distal end of the sheath, and a proximal end of the proximal sheath segment forms the most proximal end of the sheath; wherein a proximal end of the distal sheath segment is attached to or integrally formed with a distal end of the outer tube, when the outer tube drives the distal sheath segment to move, the distal sheath segment drives other sheath segments to move, thereby realizing the telescopic movement of the sheath. wherein the sheath comprises at least two sheath segments, the at least two sheath segments are sequentially sleeved one another from inside to outside, and any two adjacent sheath segments are movably connected, such that the sheath forms the cylindrical telescopic structure; wherein the at least two sheath segments comprise at least a distal sheath segment and a proximal sheath segment, an inner diameter of the distal sheath segment is greater than an inner diameter of the proximal sheath segment, when the sheath is in a fully extended state, a distal end of the distal sheath segment forms the most distal end of the sheath, and a proximal end of the proximal sheath segment forms the most proximal end of the sheath; wherein a proximal end of the distal sheath segment is attached to or integrally formed with a distal end of the outer tube, when the outer tube drives the distal sheath segment to move, the distal sheath segment drives other sheath segments to move, thereby realizing the telescopic movement of the sheath.
An implant for providing antimicrobial treatment to a bone, tissue or organ, the implant comprising: an elongate cannulated body (26, 54, 76, 150) having a threaded outer region; at least one exit channel (30, 60, 74, 104) extending from the cannulated body and out through the threaded outer region; and one or more silver, zinc or silver and zinc release members (33, 35, 84, 106, 162) configured to extend from the cannulated body and out of the exit channel; wherein the exit channel is configured to deflect the one or more release members against a thread (24, 52, 78, 102) of the outer threaded region so that it deflects away from the bone implant. an elongate cannulated body (26, 54, 76, 150) having a threaded outer region; at least one exit channel (30, 60, 74, 104) extending from the cannulated body and out through the threaded outer region; and one or more silver, zinc or silver and zinc release members (33, 35, 84, 106, 162) configured to extend from the cannulated body and out of the exit channel; wherein the exit channel is configured to deflect the one or more release members against a thread (24, 52, 78, 102) of the outer threaded region so that it deflects away from the bone implant.
A computer readable storage medium having stored therein an output program causing a computer serving as an information processing apparatus (100; 200; 500) to execute a process comprising: storing pixel values of pixels that form a binary image; calculating, for each of the pixels that form the binary image, a multi-value based on the stored pixel values; calculating, for each of the pixels that form the binary image, a first value by summing the calculated multi-value of a pixel of interest and the calculated multi-values of a predetermined number of pixels neighboring the pixel of interest; calculating, for each of the pixels that form the binary image, a second value by calculating difference values each between the calculated first value of the pixel of interest and the calculated first value of each of the neighboring pixels and summing absolute values of the difference values; determining pixels whose second value is smaller than a predetermined value; selecting, from the determined pixels, pixels whose stored pixel values are "1", and positioned in positions determined at random or based on a predetermined pattern; changing the stored pixel values, for each of the selected pixels, from "1" to "0"; and outputting the stored binary image including the changed pixel values. storing pixel values of pixels that form a binary image; calculating, for each of the pixels that form the binary image, a multi-value based on the stored pixel values; calculating, for each of the pixels that form the binary image, a first value by summing the calculated multi-value of a pixel of interest and the calculated multi-values of a predetermined number of pixels neighboring the pixel of interest; calculating, for each of the pixels that form the binary image, a second value by calculating difference values each between the calculated first value of the pixel of interest and the calculated first value of each of the neighboring pixels and summing absolute values of the difference values; determining pixels whose second value is smaller than a predetermined value; selecting, from the determined pixels, pixels whose stored pixel values are "1", and positioned in positions determined at random or based on a predetermined pattern; changing the stored pixel values, for each of the selected pixels, from "1" to "0"; and outputting the stored binary image including the changed pixel values.
Poly pocket or poly jacket made of a transparent plastic with an index strip arranged on the outer longitudinal edge and a tab strip or tab projecting beyond it, in which a write-on self-adhesive strips can be arranged on the index strip, tab strip or tab, which are easily removable again without leaving residues, characterised in that the index strip is provided on the front cover or front side of the poly pocket or poly jacket and the tab bar or the tab is provided on the rear cover or back of the poly pocket or poly jacket, and in that the tab strip or the tab is provided only on the rear cover or rear side and the index strip is provided only on the front cover or front side.
Liquid-crystalline medium, characterised in that it comprises at least one compound of the formula I, in which R 1 and R 1 * in each case, independently of one another, denote an alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may in each case be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O-, -O-CO- in such a way that O atoms are not linked directly to one another, and in which, in addition, one or more H atoms may be replaced by halogen, Z 1 and Z 2 in each case, independently of one another, denote a single bond, -CH 2 CH 2 -, -CH=CH-, -CH 2 O-, -OCH 2 -, -CF 2 O-, -OCF 2 -, -COO-, -OCO-, -C 2 F 4 -, -C≡C-, -CF=CF-, -CH=CHCHO-, L 1-3 in each case, independently of one another, denote F, Cl, CF 3, OCF 3 or CHF 2, and additionally comprises one or more compounds of the formulae L-1 to L-11, in which R, R 1 and R 2 in each case, independently of one another, have the meanings indicated for R 2A in Claim 5, and alkyl denotes an alkyl radical having 1-6 C atoms, and s denotes 1 or 2. R 1 and R 1 * in each case, independently of one another, denote an alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may in each case be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O-, -O-CO- in such a way that O atoms are not linked directly to one another, and in which, in addition, one or more H atoms may be replaced by halogen, Z 1 and Z 2 in each case, independently of one another, denote a single bond, -CH 2 CH 2 -, -CH=CH-, -CH 2 O-, -OCH 2 -, -CF 2 O-, -OCF 2 -, -COO-, -OCO-, -C 2 F 4 -, -C≡C-, -CF=CF-, -CH=CHCHO-, L 1-3 in each case, independently of one another, denote F, Cl, CF 3, OCF 3 or CHF 2, R, R 1 and R 2 in each case, independently of one another, have the meanings indicated for R 2A in Claim 5, and alkyl denotes an alkyl radical having 1-6 C atoms, and s denotes 1 or 2.
A medical delivery device comprising: a lubricant-free barrel having a proximal end, a distal end, and an interior surface defining a fluid chamber for containment of at least one therapeutic; an elastomeric stopper having an outer surface forming a fluid-tight seal with the interior surface of the barrel, wherein the elastomeric stopper comprises a plurality of ribs, each pair of ribs having a valley therebetween; characterised in that the medical delivery device further comprises at least one ring member positioned within at least one valley, wherein the at least one ring member comprises an oxygen-absorbing material, an oxygen-adsorbing material, or a combination thereof; wherein the medical delivery device further comprises a coating material positioned on a portion of the interior surface of the barrel adjacent to the proximal end of the barrel to form a region of reduced diameter to enhance an interference fit between the elastomeric stopper and the interior surface of the barrel. a lubricant-free barrel having a proximal end, a distal end, and an interior surface defining a fluid chamber for containment of at least one therapeutic; an elastomeric stopper having an outer surface forming a fluid-tight seal with the interior surface of the barrel, wherein the elastomeric stopper comprises a plurality of ribs, each pair of ribs having a valley therebetween; characterised in that the medical delivery device further comprises at least one ring member positioned within at least one valley, wherein the at least one ring member comprises an oxygen-absorbing material, an oxygen-adsorbing material, or a combination thereof; wherein the medical delivery device further comprises a coating material positioned on a portion of the interior surface of the barrel adjacent to the proximal end of the barrel to form a region of reduced diameter to enhance an interference fit between the elastomeric stopper and the interior surface of the barrel.
METHOD FOR PRODUCING A CRIMPED UPPER, made up of a section edge, leg line, crimping arc, metatarsal and phalanx line and side areas (E, F), wherein the crimping arc is produced with a special technique called "gradual needle suspension", comprising after a group of needles is gradually suspended in the work area, obtaining in this manner different rows to be worked between the two areas that are transversally on the same line, said method being characterized in that it consists of the following phases: - the starting point is an arc radius (r) of a circle, created with geometric constructions using CAD software, from an intended silhouette of the instep portion of a shoe upper at the plane of symmetry of the shoe upper; - once the circle has been created, the angle of the half-lines that depart from its centre and cross the extremities of the arc are obtained; - after this phase, the arc is divided into equal parts to obtain greater definition of the crimping curve; - after dividing into a given number of slices of equal parts (1, 2, 3, 4, 5, 6, 7, 8), the same angle size is used to determine the alignment layout of said parts (1, 2, 3, 4, 5, 6, 7, 8); - after this phase, a group of needles is gradually suspended in the work area, obtaining in this manner different rows to be worked between the two areas that are transversally on the same line. - the starting point is an arc radius (r) of a circle, created with geometric constructions using CAD software, from an intended silhouette of the instep portion of a shoe upper at the plane of symmetry of the shoe upper; - once the circle has been created, the angle of the half-lines that depart from its centre and cross the extremities of the arc are obtained; - after this phase, the arc is divided into equal parts to obtain greater definition of the crimping curve; - after dividing into a given number of slices of equal parts (1, 2, 3, 4, 5, 6, 7, 8), the same angle size is used to determine the alignment layout of said parts (1, 2, 3, 4, 5, 6, 7, 8); - after this phase, a group of needles is gradually suspended in the work area, obtaining in this manner different rows to be worked between the two areas that are transversally on the same line.
A method of identifying a target employing optics having an optical axis, the method comprising the steps of: illuminating the target with a laser beam; and detecting non-specular reflected returns from the optics of said target; CHARACTERISED IN THAT: the detected non-specular reflected returns are off-axis non-specular reflected returns; the optics employed by the target have a suppressed primary specular return; the laser is a pulsed laser emitting pulses with a predetermined pulse width; each return has a pulse width commensurate with that of the pulse width of the pulses in the laser beam; and the detection step includes detecting only reflected pulses having pulse widths approximating the pulse width associated with the pulses from the laser. illuminating the target with a laser beam; and detecting non-specular reflected returns from the optics of said target; the detected non-specular reflected returns are off-axis non-specular reflected returns; the optics employed by the target have a suppressed primary specular return; the laser is a pulsed laser emitting pulses with a predetermined pulse width; each return has a pulse width commensurate with that of the pulse width of the pulses in the laser beam; and the detection step includes detecting only reflected pulses having pulse widths approximating the pulse width associated with the pulses from the laser.
A method of providing data to a filtration system in the field comprising: storing data on a filter element, the filter element comprising - a filter body; - a filter media disposed within the filter body; and - a data storage element (222, 224) associated with the filter element for storing said data; installing the filter element within a filter housing, the filter housing defining an interior volume, the filter element configured to fit within the interior volume of the filter housing; and passing the data onto a reader device (226, 228), characterized in that the data include prioritized and non-prioritized data and wherein the prioritized data are transferred first to the reader device (226, 228). storing data on a filter element, the filter element comprising - a filter body; - a filter media disposed within the filter body; and - a data storage element (222, 224) associated with the filter element for storing said data; - a filter body; - a filter media disposed within the filter body; and - a data storage element (222, 224) associated with the filter element for storing said data; installing the filter element within a filter housing, the filter housing defining an interior volume, the filter element configured to fit within the interior volume of the filter housing; and passing the data onto a reader device (226, 228), characterized in that the data include prioritized and non-prioritized data and wherein the prioritized data are transferred first to the reader device (226, 228).
A silencer for an exhaust gas system of a motor vehicle, comprising an external housing, which has at least one inlet opening and at least one outlet opening for exhaust gas, a silencer chamber and a filter monolith through which exhaust gas flows, wherein the filter monolith is circumferentially surrounded by the silencer chamber, wherein the silencer chamber is divided into silencer subchambers by at least one perforated radial partition, characterized in that the external housing of the silencer has an outer casing, which is composed of several individual segments (66, 67, 68) attached to one another, wherein the individual segments (66, 67, 68) are allocated to the silencer subchambers.
Electro-optical glare protection device for protective goggles, safety helmets or face guards with at least two sensors and an electronic switch for controlling the optical transmission of at least one liquid crystal cell (LCD1, LCD2), wherein the at least two sensors are optical sensors (S1, S2) for detecting the light density [cd/m 2] of an object field, said sensors (S1, S2) having a different characteristic for their angle-dependent relative sensitivity (S 0), characterised in that at least one first optical sensor has a detection angle θ1 < 45°, and that at least one second optical sensor comprises a detection angle θ2 > 45°, wherein the angle-dependent relative sensitivity (S 0) of the at least first optical sensor and the angle-dependent relative sensitivity (S 0) of the at least second optical sensor has high, i.e. overlapping values at least in the half angle range from 0° to 15°.