mhurhangee/patent-ind-claim-en huggingface dataset:
A base plate for an ostomy appliance including selective sensor points, the base plate comprising: a first adhesive layer comprising a proximal surface configured to be attached to a skin surface of a user, and a plurality of sensor point openings positioned on said proximal surface arranged circumferentially around a center point at respective radial distances, wherein the plurality of sensor point openings of the first adhesive layer extends through the first adhesive layer ; and a plurality of electrodes located distally of the proximal surface , the plurality of electrodes comprising a first leakage electrode and a second leakage electrode , a sensing part of the first leakage electrode aligning with a first sensor point opening of the plurality of sensor point openings and a sensing part of the second leakage electrode aligning with a second sensor point opening of the plurality of sensor point openings to form a leak sensor. a first adhesive layer comprising a proximal surface configured to be attached to a skin surface of a user, and a plurality of sensor point openings positioned on said proximal surface arranged circumferentially around a center point at respective radial distances, wherein the plurality of sensor point openings of the first adhesive layer extends through the first adhesive layer ; and a plurality of electrodes located distally of the proximal surface , the plurality of electrodes comprising a first leakage electrode and a second leakage electrode , a sensing part of the first leakage electrode aligning with a first sensor point opening of the plurality of sensor point openings and a sensing part of the second leakage electrode aligning with a second sensor point opening of the plurality of sensor point openings to form a leak sensor.
A medical device having a joint arrangement (11; 30; 50) which is designed for a swivelling movement of a first joint part relative to a second joint part , having a first joint part , which comprises two joint limbs arranged spaced apart from one another, and a joint pin (32; 52), which extends between the joint limbs along a longitudinal axis (38; 55) and which determines a pivot axis (38; 55) of the joint arrangement (11; 30; 50), and having a second joint part which is received in regions between the two joint limbs and which is penetrated by a joint recess (31; 51), wherein the joint pin (32; 52) is received in a pivotally movable manner in the joint recess (31; 51), wherein the joint pin (32; 52) and the joint recess (31; 51) have a central contact region (33; 56) with a touching contact between joint pin (32; 52) and the joint recess (31; 51) and clearance regions (36, 37; 57, 58) which adjoin on both sides of the contact region (33; 56) and extend up to the joint limbs , at least partially within the joint recess (31; 51) and without touching contact between joint pin (32; 52) and joint recess (31; 51), in order to ensure an exclusively central force transmission between the joint pin (32; 52) and the joint recess (31; 51).
A protective helmet having multiple protective zones, comprising an inner shell having a first inner surface and a first outer surface : an outer shell having a second inner surface and a second outer surface, said outer shell functionally attached to said inner shell ; an elastomeric zone between said first outer surface and said second inner surface ; and a plurality of sinusoidal springs positioned in said elastomeric zone , each of the plurality of sinusoidal springs comprising: a first end and a second end; characterized by a plurality of energy dissipation devices arranged between the inner and outer shells (204; 202); and wherein the second end of each of the plurality of sinusoidal springs is connected to one of said plurality of energy dissipation devices . an outer shell having a second inner surface and a second outer surface, said outer shell functionally attached to said inner shell ; an elastomeric zone between said first outer surface and said second inner surface ; and a plurality of sinusoidal springs positioned in said elastomeric zone , each of the plurality of sinusoidal springs comprising: a first end and a second end; characterized by a plurality of energy dissipation devices arranged between the inner and outer shells (204; 202); and wherein the second end of each of the plurality of sinusoidal springs is connected to one of said plurality of energy dissipation devices . a first end and a second end; characterized by a plurality of energy dissipation devices arranged between the inner and outer shells (204; 202); and wherein the second end of each of the plurality of sinusoidal springs is connected to one of said plurality of energy dissipation devices .
A toner for developing electrostatic images, comprising colored resin particles that comprises a binder resin, a colorant and a charge control agent, and external additives, wherein the external additives contain at least an external additive A, an external additive B and an external additive C; wherein the external additive A is silica particles being surface-hydrophobized with at least one hydrophobizing agent selected from the group consisting of a hydrophobizing agent containing an amino group, a silane coupling agent and silicone oil, and having a number average particle diameter of from 5 nm to 30 nm; wherein the external additive B is silicone resin particles having a ratio (BS/TS) of a BET specific surface area (BS), which is measured by a nitrogen adsorption method as described in the description, to a theoretical specific surface area (TS), which is obtained by calculating from a number average particle diameter measured by scanning electron microscope (SEM) observation as described in the description on a theoretical calculation formula, in a range of from 3.0 to 30.0, and having a number average particle diameter of from 0.05 μm to 1.00 μm, and the theoretical calculation formula is defined as follows: Theoretical specific surface area TS m 2 / g = 6 / average density g / cm 3 × number average particle diameter nm × 10 3 ; wherein, with respect to 100 parts by mass of the colored resin particles, the content of the external additive A is from 0.1 part by mass to 2.0 parts by mass, and the content of the external additive B is from 0.1 part by mass to 1.0 part by mass; wherein the external additive C is silica particles being surface-hydrophobized with at least one hydrophobizing agent selected from the group consisting of a hydrophobizing agent containing an amino group, a silane coupling agent and silicone oil, and having a number average particle diameter of from 31 nm to 200 nm; wherein the content of the external additive C is from 0.1 part by mass to 3.0 parts by mass, with respect to 100 parts by mass of the colored resin particles; and wherein the colored resin particles, the external addit ive A and the external additive C are positively charge able, and particles of the toner are positively chargea ble. wherein, with respect to 100 parts by mass of the colored resin particles, the content of the external additive A is from 0.1 part by mass to 2.0 parts by mass, and the content of the external additive B is from 0.1 part by mass to 1.0 part by mass; wherein the external additive C is silica particles being surface-hydrophobized with at least one hydrophobizing agent selected from the group consisting of a hydrophobizing agent containing an amino group, a silane coupling agent and silicone oil, and having a number average particle diameter of from 31 nm to 200 nm; wherein the content of the external additive C is from 0.1 part by mass to 3.0 parts by mass, with respect to 100 parts by mass of the colored resin particles; and wherein the colored resin particles, the external addit ive A and the external additive C are positively charge able, and particles of the toner are positively chargea ble.
An airfoil component comprising: a platform having a gaspath side and a non-gaspath side ; an airfoil that is joined through a transition section to the platform , the platform and airfoil being formed of a composite material having fiber layers , the fiber layers being contiguous in the airfoil and diverging in the transition section such that a first portion of the fiber layers forms a first section of the platform on a first side of the airfoil and a second portion of the fiber layers forms a second section of the platform on a second side of the airfoil , the diverging of the fiber layers establishing an open elongated cleft along the non-gaspath side of the platform that is V-shaped, wherein the fiber layers at the cleft are consolidated; and characterized in that the component further comprises cover fiber layers extending through the cleft ; and in that the cover fiber layers smooth over the nose of the V-shape but do not fill the cleft , the airfoil excludes the cover fiber layers , and the cover fibre layers are fully consolidated. a platform having a gaspath side and a non-gaspath side ; an airfoil that is joined through a transition section to the platform , the platform and airfoil being formed of a composite material having fiber layers , the fiber layers being contiguous in the airfoil and diverging in the transition section such that a first portion of the fiber layers forms a first section of the platform on a first side of the airfoil and a second portion of the fiber layers forms a second section of the platform on a second side of the airfoil , the diverging of the fiber layers establishing an open elongated cleft along the non-gaspath side of the platform that is V-shaped, wherein the fiber layers at the cleft are consolidated; and characterized in that the component further comprises cover fiber layers extending through the cleft ; and in that the cover fiber layers smooth over the nose of the V-shape but do not fill the cleft , the airfoil excludes the cover fiber layers , and the cover fibre layers are fully consolidated. the platform and airfoil being formed of a composite material having fiber layers , the fiber layers being contiguous in the airfoil and diverging in the transition section such that a first portion of the fiber layers forms a first section of the platform on a first side of the airfoil and a second portion of the fiber layers forms a second section of the platform on a second side of the airfoil , the diverging of the fiber layers establishing an open elongated cleft along the non-gaspath side of the platform that is V-shaped, wherein the fiber layers at the cleft are consolidated; and characterized in that the component further comprises cover fiber layers extending through the cleft ; and in that the cover fiber layers smooth over the nose of the V-shape but do not fill the cleft , the airfoil excludes the cover fiber layers , and the cover fibre layers are fully consolidated.
An agent for use in mucosal immunomodulation comprising, as an active ingredient, at least one selected from the group consisting of the compounds represented by the formulas , , , or , and salts thereof, and wherein the mucosal immunomodulation is mucosal immunostimulation.
A roller shutter box comprising: - an elongated casing defining an inner space wherein a suspension system for a roller shutter shaft is mounted, and - an insert located at the casing's inward facing side, said insert comprising a thermally insulating body portion of one piece of thermally insulating material, wherein the insert further comprises a reinforcing skin layer attached to a side of the thermally insulating body portion facing away from the roller shutter shaft and positioned in a vertical position, wherein the reinforcing skin layer is attached to the thermally insulating body portion by means of glue, or by a snap fitting, or by being clamped onto the thermally insulating body portion , wherein the insert's shape corresponds to at least part of the inner space at the casing's inward facing side, such that it is clamped in the inner space; such that the insert becomes a reinforcing profile giving sufficient rigidity to the roller shutter box to avoid bending of the roller shutter box. - an elongated casing defining an inner space wherein a suspension system for a roller shutter shaft is mounted, and - an insert located at the casing's inward facing side, said insert comprising a thermally insulating body portion of one piece of thermally insulating material,
Device for the chip-removing processing of preferably metal workpieces , with a tool and a workpiece holder , wherein the tool for the chip-removing processing of the workpiece is movable along a predeterminable path of movement relative to a workpiece held in the workpiece holder , wherein the tool is able to pivot about a tool pivotal axis (W) relative to a workpiece held in the workpiece holder , wherein the tool pivotal axis (W) is oriented at least substantially perpendicularly to the path of movement, wherein the device is designed through pivoting the tool relative to the workpiece about the tool pivotal axis (W) to correct the alignment of the cutter of the tool according to the contour of the path of movement, wherein the tool holder , in which the tool is received, is received on a linear drive of the device , which (drive) in turn is itself held on a tool carrier of the device and is able to pivot about a linear drive pivotal axis (L) characterised in that the tool carrier is movable in three spatial directions (X, Y, Z) and that the device has a further linear drive which is mounted on the tool carrier where it can pivot about a linear drive pivotal axis (L).
A 3D printer head for additively building a component, comprising - a chamber adapted to receive liquid or solid printing material (DM) through an inlet , wherein - the chamber has an outlet provided and adapted for applying liquid or liquefied printing material (DM) to a surface (F), - wherein the outlet has a rotationally asymmetrical passage cross-section for the pressure material (DM) and is part of a nozzle rotatably arranged on the chamber about a central longitudinal axis (M), which nozzle is divided in two in the longitudinal direction, the end facing the surface (F) and remote from the chamber being rotatable, this rotatable end of the nozzle having a nozzle body which has an end face facing the surface (F) which can be controlled to rotate about the central longitudinal axis (M) in order to change the orientation of the outlet with its rotationally asymmetrical passage cross-section and to adapt it to a travel path of the 3D printer head , characterized in that the end face is designed to be rotationally asymmetrical with respect to the central longitudinal axis M. - a chamber adapted to receive liquid or solid printing material (DM) through an inlet , wherein - the chamber has an outlet provided and adapted for applying liquid or liquefied printing material (DM) to a surface (F), - wherein the outlet has a rotationally asymmetrical passage cross-section for the pressure material (DM) and is part of a nozzle rotatably arranged on the chamber about a central longitudinal axis (M), which nozzle is divided in two in the longitudinal direction, the end facing the surface (F) and remote from the chamber being rotatable, this rotatable end of the nozzle having a nozzle body which has an end face facing the surface (F) which can be controlled to rotate about the central longitudinal axis (M) in order to change the orientation of the outlet with its rotationally asymmetrical passage cross-section and to adapt it to a travel path of the 3D printer head , characterized in that the end face is designed to be rotationally asymmetrical with respect to the central longitudinal axis M.
A method for the production of polyoxazolidinone compounds, comprising the step of reacting an isocyanate compound (A) with an epoxide compound (B) in the presence of a catalyst (C), wherein the isocyanate compound (A) comprises a isocyanate compound (A 1 ) wherein the a isocyanate compound (A 1 ) comprising at least two isocyanate groups (I 1 ≥ 2), preferred two isocyanate groups (I 1 = 2), wherein the epoxide compound (B) comprises a epoxide compound (B 1 ) and an epoxide compound (B 2 ), wherein the epoxide compound (B 2 ) is different from the epoxide compound (B 1 ) wherein the epoxide compound (B 1 ) comprising at least two terminal epoxide groups (F 1 ≥ 2), preferred two terminal epoxide groups (F 1 = 2), linked together by a linking group (L 1 ) and the epoxide compound (B 2 ) comprising at least two terminal epoxide groups (F 2 ≥ 2)), preferred two terminal epoxide groups (F 2 = 2), linked together by a linking group (L 2 ), wherein the linking group (L 2 ) comprises acyclic and covalent bonds to each other free of conjugated multiple bonds within the main chain, wherein the epoxide compound (B 2 ) is present in the epoxide compounds B 1 and B 2 , in an amount of ≥ 0.01 mol-% to ≤ 10 mol-%, preferred 1-9 mol-% more preferred 3-8 mol-% based on the molar ratio the terminal epoxide groups in the epoxide compound (B 1 ) and of the sum of the terminal epoxide groups in the epoxide compound (B 1 ) and terminal epoxide groups in the epoxide compound (B 2 ).
Shogaols for use in treatment of iron overload conditions in mammals by regulating iron homeostasis in myelodysplastic conditions.
A vacuum forming method of manufacturing a product by using a vacuum forming mold including a vacuum forming product protrusion forming device (D), the vacuum forming product protrusion forming device (D) comprising: a body portion fixed on one side of the vacuum forming mold; a guide portion inserted in the body portion to be movable in an up and down direction with respect to the body portion ; a hinge portion connected to one side of the guide portion ; and a protrusion forming portion connected to the one side of the guide portion through the hinge portion to be pivotable within an angular range around the hinge portion , wherein the body portion comprises: a coupling hole formed to be coupled to the vacuum forming mold; and a storage space formed to have a portion of the guide portion inserted therein, and in a process of separating the vacuum forming mold from the product, the protrusion forming portion pivots around the hinge portion , whereby the protrusion forming portion is removed from the protrusion (P) formed on the product, the vacuum forming method comprising: placing fabric on the vacuum forming mold; forming the fabric by vacuum pressing a same; separating a formed product from the vacuum forming mold; and producing a plurality of products by repeating the placing of the fabric to the separating of the product from the vacuum forming mold. placing fabric on the vacuum forming mold; forming the fabric by vacuum pressing a same; separating a formed product from the vacuum forming mold; and producing a plurality of products by repeating the placing of the fabric to the separating of the product from the vacuum forming mold.
Metallic turbine or compressor stator component coated with an abradable coating system (2-8) for clearance reduction in a turbine or a compressor with a blading and with a turbine/compressor axis, the coating system comprising at least one block wherein the block comprises a woven or non-woven tissue made of a material selected from the group of ceramic, glass, glass-ceramic, and combinations thereof, which is at least partly impregnated with filler particles and/or filler fibres and with a binder of an inorganic polymer, wherein at least in a centre part of the coating system the abradability is graded along a radial direction (z) with respect to the turbine/compressor axis such that the surfacial region of the side facing the blading is more abradable than the opposite side facing the component on which the coating system is applied, and wherein the coating system has a height (h) along the radial direction (z) with respect to the turbine or compressor axis in the range of 0.2-4 mm; wherein the centre part is stripe-like circumferentially oriented and bordered at both sides in axial direction by a stripe like circumferentially oriented side part , wherein the centre part is highly abradable such that it is essentially abraded by the blading without blading tip reinforcement, and wherein the side part(s) are less or essentially not abradable, and erosion resistant, wherein the abradability differentiation between centre part and side part(s) is provided by using for both parts the same tissue but providing a different impregnation in the centre part than in the side part(s) , wherein the impregnation differs by type and/or density of filler particles /fibres and/or by different type and/or density of binder material.
A method of predicting fluid responsiveness in a critically ill patient, comprising: receiving a real-time physiological data of the patient producing a real-time physiological waveform; performing a discrete Fourier transform of the real-time physiological waveform; generating an estimate of pulse pressure variability from the discrete Fourier transform of the real-time physiological waveform, wherein the generating is based on signal components of the Fourier transform located at a difference between a heart rate and a respiratory rate and a sum of the heart rate and the respiratory rate and any associated harmonics; and displaying the estimate of pulse pressure variability on a clinical display. receiving a real-time physiological data of the patient producing a real-time physiological waveform; performing a discrete Fourier transform of the real-time physiological waveform; generating an estimate of pulse pressure variability from the discrete Fourier transform of the real-time physiological waveform, wherein the generating is based on signal components of the Fourier transform located at a difference between a heart rate and a respiratory rate and a sum of the heart rate and the respiratory rate and any associated harmonics; and displaying the estimate of pulse pressure variability on a clinical display.
A working fluid supply device of an electric discharge machine, wherein the electric discharge machine is configured to machine a workpiece attached to a working tank in such a manner that the workpiece is immersed in a working fluid in the working tank by the working fluid supply device, and the working fluid supply device comprises: a cleaned-fluid tank ; an ion-exchange resin ; a refrigerator ; a pump configured to draw up a cleaned fluid from the cleaned-fluid tank ; characterised in that the working fluid supply device further comprises a first fluid circuit configured to supply the cleaned fluid drawn up by the pump to the working tank ; a second fluid circuit configured to supply the cleaned fluid drawn up by the pump to the ion-exchange resin and the refrigerator ; a first valve provided in the first fluid circuit; a second valve provided in the second fluid circuit; and a controller configured to performs open/close control of each of the first and second valves so that the cleaned fluid drawn up by the pump is supplied to the first or second fluid circuit. a cleaned-fluid tank ; an ion-exchange resin ; a refrigerator ; a pump configured to draw up a cleaned fluid from the cleaned-fluid tank ; characterised in that the working fluid supply device further comprises a first fluid circuit configured to supply the cleaned fluid drawn up by the pump to the working tank ; a second fluid circuit configured to supply the cleaned fluid drawn up by the pump to the ion-exchange resin and the refrigerator ; a first valve provided in the first fluid circuit; a second valve provided in the second fluid circuit; and a controller configured to performs open/close control of each of the first and second valves so that the cleaned fluid drawn up by the pump is supplied to the first or second fluid circuit.