mhurhangee/ep-ind-claims huggingface dataset:
A medical device for preventing or treating atopic dermatitis, comprising: a covered space operable to cover a patient itself or an affected area; an ion generating element operable to fill the covered space with positive ions composed of H + (H 2 O) m (m being any integer) and negative ions composed of O 2 - (H 2 O) n (n being any integer) which are generated as a result of discharge in an atmosphere, said medical device configured such that said positive ions and said negative ions are brought into contact with a skin surface of the patient, characterised in that the respective concentrations of said positive ions and said negative ions generated as a result of discharge are not less than 200000/cm 3. a covered space operable to cover a patient itself or an affected area; an ion generating element operable to fill the covered space with positive ions composed of H + (H 2 O) m (m being any integer) and negative ions composed of O 2 - (H 2 O) n (n being any integer) which are generated as a result of discharge in an atmosphere, said medical device configured such that said positive ions and said negative ions are brought into contact with a skin surface of the patient, characterised in that the respective concentrations of said positive ions and said negative ions generated as a result of discharge are not less than 200000/cm 3.
A process for preparing a curable silylated polyurethane resin which comprises: a) silylating hydroxyl-terminated polyol polymer, which is a di- or polyisocyanate-extended polyols which contains partially reacted di- or polyisocyanate, with isocyanatosilane under anhydrous conditions to provide a silylated polyurethane containing residual isocyanate; and, b) at the desired point near the end of the silylation reaction, which is determined by viscosity of the reaction mixture being in the range of 1,000 mPa•s (1,000 cP) to 150,000 mPa•s (150,000 cP), scavenging isocyanate present in the silylated polyurethane of step (a) with an excess of at least one isocyanate-reactive scavenging agent which is a mono-alcohol or a mixture of different mono-alcohols to provide a silylated polyurethane resin which contains less than 0.02 weight percent isocyanate, the silylated polyurethane resin resulting from step (b) which contains less than 0.02 weight percent isocyanate possessing a viscosity following aging in the range of 1,000 mPa•s (1,000 cP) to 150,000 mPa•s (150,000 cP) which is less than that of the isocyanate-containing silylated polyurethane resin resulting from step (a) following the same conditions of aging, wherein the viscosity is measured at 25°C on a Brookfield RVDV-II + cone and plate viscometer and aging is achieved in an oven at 50°C for 28 days. a) silylating hydroxyl-terminated polyol polymer, which is a di- or polyisocyanate-extended polyols which contains partially reacted di- or polyisocyanate, with isocyanatosilane under anhydrous conditions to provide a silylated polyurethane containing residual isocyanate; and, b) at the desired point near the end of the silylation reaction, which is determined by viscosity of the reaction mixture being in the range of 1,000 mPa•s (1,000 cP) to 150,000 mPa•s (150,000 cP), scavenging isocyanate present in the silylated polyurethane of step (a) with an excess of at least one isocyanate-reactive scavenging agent which is a mono-alcohol or a mixture of different mono-alcohols to provide a silylated polyurethane resin which contains less than 0.02 weight percent isocyanate,
An anchor delivery device comprising: a shaft with a distal end and a proximal end, the shaft having a curved portion comprising a sharp tip at the distal end of the shaft wherein the curved portion has a geometry such that the tip is orientated towards the proximal end of the shaft; and wherein the tip is configured to receive and deliver a removable anchor, the anchor being coupled to suture, the tip being dimensioned to be received through a received anchor, the device further comprising a shield, the shield and tip being moveable relative to one another between a shielded configuration and a deployed configuration, and wherein movement between the shielded configuration and the deployed configuration is along an arcuate path and wherein in a deployed configuration the device is configured to operably present and deliver the anchor into an abdominal wall from inside an abdominal space. a shaft with a distal end and a proximal end, the shaft having a curved portion comprising a sharp tip at the distal end of the shaft wherein the curved portion has a geometry such that the tip is orientated towards the proximal end of the shaft; and wherein the tip is configured to receive and deliver a removable anchor, the anchor being coupled to suture, the tip being dimensioned to be received through a received anchor, the device further comprising a shield, the shield and tip being moveable relative to one another between a shielded configuration and a deployed configuration, and wherein movement between the shielded configuration and the deployed configuration is along an arcuate path and wherein in a deployed configuration the device is configured to operably present and deliver the anchor into an abdominal wall from inside an abdominal space.
An acoustic liner, comprising: a support layer that includes a set of partitioned cavities with open faces; a facing sheet operably coupled to the support layer such that the facing sheet overlies and closes the open faces, wherein an upper surface of the facing sheet comprises at least one discontinuity, the at least one discontinuity comprising: a partially formed perforation, a recess, or a channel, each of which extends less than all the way through the facing sheet; and a set of perforations included in the facing sheet, and in fluid communication with cavities included in the set of cavities to form a set of acoustic resonators and where the set of perforations are formed via grit blasting and range in diameter from 0.66 mm to 0.759 mm (0.026 inches to 0.0299 inches), wherein the at least one discontinuity is located between the perforations. a support layer that includes a set of partitioned cavities with open faces; a facing sheet operably coupled to the support layer such that the facing sheet overlies and closes the open faces, wherein an upper surface of the facing sheet comprises at least one discontinuity, the at least one discontinuity comprising: a partially formed perforation, a recess, or a channel, each of which extends less than all the way through the facing sheet; and a set of perforations included in the facing sheet, and in fluid communication with cavities included in the set of cavities to form a set of acoustic resonators and where the set of perforations are formed via grit blasting and range in diameter from 0.66 mm to 0.759 mm (0.026 inches to 0.0299 inches), wherein the at least one discontinuity is located between the perforations.
A depth detection device, comprising a stereo image recording device (21, 21a, 21b), a scaler, and a depth determiner, wherein the stereo image recording device (21, 21a, 21b) is configured to record a stereo image of a scene, wherein the stereo image recording device (21, 21a, 21b) comprises - a first optical path, configured to record a first image of the stereo image, and - a second optical path, configured to record a second image of the stereo image, wherein the first optical path and second optical path are of different length, wherein the scaler is configured to - determine a scaling of the first image or of the second image, by minimizing differing lateral magnification of objects in the scene depicted in the first image and the second image, and - perform the determined scaling, resulting in a scaled stereo image, wherein the depth determiner is configured to determine a depth map of the scene based upon the scaled stereo image, wherein the scaler is configured to determine a scaling factor M 0 opt as M 0 opt = 1 + Δ log z 1 z 2 z 2 − z 1, wherein Δ is a difference in optical length of the first optical path and the second optical path, z 1 is a lower limit of a depth range of the scene, and z 2 is an upper limit of a depth range of the scene. wherein the stereo image recording device (21, 21a, 21b) is configured to record a stereo image of a scene, wherein the stereo image recording device (21, 21a, 21b) comprises - a first optical path, configured to record a first image of the stereo image, and - a second optical path, configured to record a second image of the stereo image, - a first optical path, configured to record a first image of the stereo image, and - a second optical path, configured to record a second image of the stereo image, wherein the first optical path and second optical path are of different length, wherein the scaler is configured to - determine a scaling of the first image or of the second image, by minimizing differing lateral magnification of objects in the scene depicted in the first image and the second image, and - perform the determined scaling, resulting in a scaled stereo image, - determine a scaling of the first image or of the second image, by minimizing differing lateral magnification of objects in the scene depicted in the first image and the second image, and - perform the determined scaling, resulting in a scaled stereo image, wherein the depth determiner is configured to determine a depth map of the scene based upon the scaled stereo image, wherein the scaler is configured to determine a scaling factor M 0 opt as M 0 opt = 1 + Δ log z 1 z 2 z 2 − z 1, wherein Δ is a difference in optical length of the first optical path and the second optical path, z 1 is a lower limit of a depth range of the scene, and z 2 is an upper limit of a depth range of the scene.
A module support for a modular system (100; 300), wherein a plurality of energy storage modules can be held by at least one module support, whereby each energy storage module has two module-side cooling fluid connections, a module-side electrical contact, and a module-side coupling element (410; 810), wherein the module support has the following features: a support housing with two side walls opposite to one another; a cooling channel for carrying a cooling fluid, wherein the cooling channel is arranged in the support housing and runs between the side walls; two support-side cooling fluid connections, which are designed to be connected to the module-side cooling fluid connections, and wherein the support-side cooling fluid connections are arranged in one of the side walls of the support housing and connected to the cooling channel; a support-side electrical contact, which is designed to be connected to the module-side electrical contact; a channel for carrying an electrical line to the support-side electrical contact, wherein the channel is arranged in the support housing and runs between the side walls; and a support-side coupling element (108; 408), which is designed to be connected to the module-side coupling element, so that the energy storage module is held on one of the side walls and the support-side cooling connections are connected to the module-side cooling fluid connections in a fluid-tight manner. a support housing with two side walls opposite to one another; a cooling channel for carrying a cooling fluid, wherein the cooling channel is arranged in the support housing and runs between the side walls; two support-side cooling fluid connections, which are designed to be connected to the module-side cooling fluid connections, and wherein the support-side cooling fluid connections are arranged in one of the side walls of the support housing and connected to the cooling channel; a support-side electrical contact, which is designed to be connected to the module-side electrical contact; a channel for carrying an electrical line to the support-side electrical contact, wherein the channel is arranged in the support housing and runs between the side walls; and a support-side coupling element (108; 408), which is designed to be connected to the module-side coupling element, so that the energy storage module is held on one of the side walls and the support-side cooling connections are connected to the module-side cooling fluid connections in a fluid-tight manner.
An illuminated support device for an object or subject to be photographed or filmed, comprising an illuminated support and raising means comprising a long body, a base associated with one of the distal ends of the body, and a platform, wherein the long body has an illuminating and diffusing wall, characterized in that the long body extends in height, the platform is placed on the other distal end of the long body opposite the base, wherein the platform has a surface that is smaller than or equal to the surface of the base of the object to be placed on said platform so that said base of the object covers the platform and the long body extending in height contains lighting means that form a column.
A tetrafluoroethylene polymer having drawability and non-melt processability, wherein - the TFE polymer has a ratio S 2 /S 1 of ≥ 0.60, wherein S 2 is an endotherm mJ/mg in a range of T 0 °C to 350°C, T 0 °C is a temperature 2.5°C lower than a temperature T p °C (340 ≤ T p ≤ 345) at which a minimum point is given on a heat-of-fusion curve obtained by measuring an unbaked polymer for measurement having no history of heating to a temperature of ≥ 300°C using a differential scanning calorimeter at a temperature-increasing rate of 2°C/min, and S 1 is an endotherm mJ/mg in a range of 320°C to T 0 °C, and - in the heat-of-fusion curve, a half-width HW that is a difference between temperatures at two intersection points of the heat-of-fusion curve and a line which is parallel to a baseline and passes through a half position of a vertical line extending from the minimum point at the temperature T p °C to the baseline is ≥ 5.0, wherein the above parameters are determined as described in the description. - the TFE polymer has a ratio S 2 /S 1 of ≥ 0.60, wherein S 2 is an endotherm mJ/mg in a range of T 0 °C to 350°C, T 0 °C is a temperature 2.5°C lower than a temperature T p °C (340 ≤ T p ≤ 345) at which a minimum point is given on a heat-of-fusion curve obtained by measuring an unbaked polymer for measurement having no history of heating to a temperature of ≥ 300°C using a differential scanning calorimeter at a temperature-increasing rate of 2°C/min, and S 1 is an endotherm mJ/mg in a range of 320°C to T 0 °C, and S 2 is an endotherm mJ/mg in a range of T 0 °C to 350°C, T 0 °C is a temperature 2.5°C lower than a temperature T p °C (340 ≤ T p ≤ 345) at which a minimum point is given on a heat-of-fusion curve obtained by measuring an unbaked polymer for measurement having no history of heating to a temperature of ≥ 300°C using a differential scanning calorimeter at a temperature-increasing rate of 2°C/min, and S 1 is an endotherm mJ/mg in a range of 320°C to T 0 °C, and - in the heat-of-fusion curve, a half-width HW that is a difference between temperatures at two intersection points of the heat-of-fusion curve and a line which is parallel to a baseline and passes through a half position of a vertical line extending from the minimum point at the temperature T p °C to the baseline is ≥ 5.0, wherein the above parameters are determined as described in the description.
Additive manufacturing system, comprising a liquefier tube, wherein the liquefier tube comprises ∘ a body provided with a feed channel; ∘ said feed channel having: ▪ a feeding portion having a first diameter; ▪ an outlet portion having a second diameter, wherein the first diameter is larger than the second diameter; ▪ a transitional portion interconnecting the feeding portion and the outlet portion; wherein said transitional portion has a decreasing third diameter from said first diameter to said second diameter; and wherein an inner surface of said transitional portion is provided with a plurality of ribs characterized in that the ribs are made one with the transitional portion and are made from a same heat conductive material as the liquefier tube, in that the ribs of said plurality of ribs are spaced evenly along a circumference of said inner surface of said transitional portion, and in that the ribs of said plurality of ribs have a differentiable profile as a function of a longitudinal position within the transitional portion of the feed channel. ∘ a body provided with a feed channel; ∘ said feed channel having: ▪ a feeding portion having a first diameter; ▪ an outlet portion having a second diameter, wherein the first diameter is larger than the second diameter; ▪ a transitional portion interconnecting the feeding portion and the outlet portion; wherein ▪ a feeding portion having a first diameter; ▪ an outlet portion having a second diameter, wherein the first diameter is larger than the second diameter; ▪ a transitional portion interconnecting the feeding portion and the outlet portion; wherein
A system for jointly producing erythritol and liquid sorbitol by using a corn starch, comprising a liquefaction tank, a saccharification tank, a filter and a nanofiltration assembly, wherein the liquefaction tank is used to perform liquefaction of the corn starch, the saccharification tank is used to perform saccharification for the liquefied material, the filter is used to filter out impurities in the saccharified material to obtain a glucose liquid, and the nanofiltration assembly is used to perform nanofiltration of the filtered glucose liquid to respectively obtain a dialysate and a concentrate; the system further comprises a fermentation and crystallization assembly for performing fermentation and crystallization of the dialysate to prepare crystalline erythritol, and a hydrogenation and evaporation assembly for performing hydrogenation and evaporation of the concentrate to prepare liquid sorbitol.
A cruise path generating method for a combined robot, the combined robot comprising a self-moving robot and a functional module coupled with the self-moving robot, the cruise path generating method comprising: providing or generating a working map of the self-moving robot; marking a target point on the working map; planning an operating path from a starting point to the target point according to a location of the target point in the working map to generate a planned path; the combined robot beginning to walk in accordance with the planned path, and determining whether an obstacle is encountered during walking: if the obstacle is encountered during walking, adjusting a path and updating the planned path according to a walking path to form an actual path; or if the obstacle is not encountered during walking, directly walking to form the actual path; and saving the actual path as a cruise path of the combined robot, a working mode of the combined robot comprising an uncombined mode and a combined mode, wherein: when the self-moving robot individually works, the combined robot is in the uncombined mode, and when the self-moving robot is coupled with the functional module, the combined robot is in the combined mode. providing or generating a working map of the self-moving robot; marking a target point on the working map; planning an operating path from a starting point to the target point according to a location of the target point in the working map to generate a planned path; the combined robot beginning to walk in accordance with the planned path, and determining whether an obstacle is encountered during walking: if the obstacle is encountered during walking, adjusting a path and updating the planned path according to a walking path to form an actual path; or if the obstacle is not encountered during walking, directly walking to form the actual path; and if the obstacle is encountered during walking, adjusting a path and updating the planned path according to a walking path to form an actual path; or if the obstacle is not encountered during walking, directly walking to form the actual path; and saving the actual path as a cruise path of the combined robot, a working mode of the combined robot comprising an uncombined mode and a combined mode, wherein: when the self-moving robot individually works, the combined robot is in the uncombined mode, and when the self-moving robot is coupled with the functional module, the combined robot is in the combined mode.
A method of opening a container having a sealing flap that is integral with one face panel of the container overlaid on an end flap that is integral with an opposite face panel of the container and adhered to the sealing flap at one edge, and the sealing flap including a perforation pattern having a first perforation line and a second perforation line extending from the first perforation line to a first edge (26D, 26F) of the sealing flap, the first perforation line including a central section, pressing inwards on an area of a sealing flap between the central section of the first perforation line and the fold line to tear a region of the sealing flap at the first perforation line;folding the torn region of the sealing flap at the fold line over an underside of the end flap proximate the open area, and pulling outwards on the underside of the end flap to tear the second perforation line and open a side of the container characterized in that: the end flap includes an open area defined therein, the sealing flap also includes a fold line spaced apart from the central section, the first perforation line is configured to tear at a lower force than the second perforation line; and the central section extends over the open area of the end flap. the end flap includes an open area defined therein, the sealing flap also includes a fold line spaced apart from the central section, the first perforation line is configured to tear at a lower force than the second perforation line; and the central section extends over the open area of the end flap.
Method for producing an illuminable extension, which can be attached to a motor vehicle, comprising the steps: a) providing a light-transmitting film having a first side and a second side opposite the first side; b) coating at least a part of the first side of the film with a masking layer which is opaque except for at least one light-transmissive region; c) coating at least a part of the second side of the film with a second layer which is formed in such a way that it transmits only a predetermined proportion of light incident on the film, the second layer having a pigmentation or scattering additives or a tint; characterised by d) back-injection of the coated film in an injection moulding process, thereby forming a carrier for the film, the carrier being formed during back-injection of the film so as to have a light-transmitting region adjacent to the at least one light-transmitting region of the masking layer. a) providing a light-transmitting film having a first side and a second side opposite the first side; b) coating at least a part of the first side of the film with a masking layer which is opaque except for at least one light-transmissive region; c) coating at least a part of the second side of the film with a second layer which is formed in such a way that it transmits only a predetermined proportion of light incident on the film, the second layer having a pigmentation or scattering additives or a tint;