mhurhangee/ep-ind-claims huggingface dataset:
A toner, comprising: a binder resin either (i) comprising a non-crystalline resin having an acid value of 2 mg KOH/g to 24 mg KOH/g and a material which is compatible with the non-crystalline resin or (ii) including a crystalline resin as a main component and which is a first crystalline resin (C-1); and a second crystalline resin (C-2) having a weight-average molecular weight Mw greater than that of the first crystalline resin; releasing agent-encapsulating capsules; and a colorant, wherein the releasing agent-encapsulating capsules each comprise: a capsule formed of a resin which is a vinyl resin and which differs from the binder resin in that there is a difference in monomer type used for binder resin formation, being a difference in ratio of monomers and in the molecular weight of the binder resin; and a releasing agent which is encapsulated in the capsule, and the releasing agent-encapsulating capsules exist in the binder resin, and wherein 50% to 100% of the releasing agent-encapsulating capsules exist in a region from a surface of the toner to a depth of 0.10 times a volume-average particle diameter of the toner as measured according to the description. a binder resin either (i) comprising a non-crystalline resin having an acid value of 2 mg KOH/g to 24 mg KOH/g and a material which is compatible with the non-crystalline resin or (ii) including a crystalline resin as a main component and which is a first crystalline resin (C-1); and a second crystalline resin (C-2) having a weight-average molecular weight Mw greater than that of the first crystalline resin; releasing agent-encapsulating capsules; and a colorant, wherein the releasing agent-encapsulating capsules each comprise: a capsule formed of a resin which is a vinyl resin and which differs from the binder resin in that there is a difference in monomer type used for binder resin formation, being a difference in ratio of monomers and in the molecular weight of the binder resin; and a releasing agent which is encapsulated in the capsule, and the releasing agent-encapsulating capsules exist in the binder resin, and wherein 50% to 100% of the releasing agent-encapsulating capsules exist in a region from a surface of the toner to a depth of 0.10 times a volume-average particle diameter of the toner as measured according to the description.
A set of fixtures for installation in bone tissue, comprising a first fixture for insertion into a bore hole arranged in bone tissue for providing static strain to the bone tissue, and a second fixture for insertion into a bore hole arranged in bone tissue for providing static strain to the bone tissue, wherein the static strain provided by the first fixture if installed into a bore hole is, at least with respect to magnitude and/or axial extension, different from the static strain provided by the second fixture if it would be installed into said bore hole instead of the first fixture, wherein each one of said fixtures (10a, 10b) comprises a leading portion (12a, 12b), and a trailing portion (16a, 16b) being wider than the leading portion (12a, 12b) with respect to major and/or minor fixture diameter for providing the static strain to the bone tissue, wherein at least a subportion of the trailing portion of the first fixture is dimensionally different from a corresponding subportion of the trailing portion of the second fixture, and wherein the leading portions (12a, 12b) of said fixtures (10a, 10b) have the same dimensions, and wherein each one of said fixtures (10a, 10b) comprises an external thread which extends uninterrupted from the leading portion (12a, 12b) to the trailing portion (16a, 16b).
An oil-in-water emulsion composition comprising a) 40-98% of at least one liquid continuous aqueous phase comprising at least one linear or branched C 1 -C 4 alcohol selected from the group consisting of ethanol, isopropyl alcohol, and n-propanol; b) 1-40% of at least one dispersed fatty phase, comprising at least one oil having biological origin, selected from triglyceride oils comprising fatty acids selected from myristic acid, palmitic acid, stearic acid, oleic acid, linolic acid, linolenic acid, pelargonic acid, capric acid, caprylic acid, lauric acid, or mixture thereof; c) 0.25 - 20% of stabilizing particles, consisting of components being solid particles; wherein the emulsion is a Pickering emulsion; wherein the emulsion is surfactant free; wherein the emulsion composition comprises at least 20%, by weight, of said C 1 -C 4 alcohol, and wherein the dispersed fatty phase is selected to have no, or at least very limited solubility in the continuous aqueous phase; and wherein the solid particles consists of starch. a) 40-98% of at least one liquid continuous aqueous phase comprising at least one linear or branched C 1 -C 4 alcohol selected from the group consisting of ethanol, isopropyl alcohol, and n-propanol; b) 1-40% of at least one dispersed fatty phase, comprising at least one oil having biological origin, selected from triglyceride oils comprising fatty acids selected from myristic acid, palmitic acid, stearic acid, oleic acid, linolic acid, linolenic acid, pelargonic acid, capric acid, caprylic acid, lauric acid, or mixture thereof; c) 0.25 - 20% of stabilizing particles, consisting of components being solid particles; wherein the emulsion is a Pickering emulsion; wherein the emulsion is surfactant free; wherein the emulsion composition comprises at least 20%, by weight, of said C 1 -C 4 alcohol, and wherein the dispersed fatty phase is selected to have no, or at least very limited solubility in the continuous aqueous phase; and wherein the solid particles consists of starch.
An implantable microstimulator comprising: a hermetically-sealed housing wherein an electronic subassembly is housed, said housing having a length no greater than about 27 mm and cross-sectional dimensions no greater than about 3.3 mm; a first electrode external to the hermetically-sealed housing and electrically coupled to said electronic subassembly; a second electrode external to said hermetically-sealed housing and electrically coupled to said electronic subassembly; an antenna coil within said hermetically-sealed housing said antenna coil being arranged around a ferrite core and electrically coupled to said electronic subassembly; self-contained power source means contained within said hermetically-sealed housing and operatively connected to said electronic subassembly for providing operating power to said electronic subassembly; and bi-directional telemetry means coupled to said antenna coil and configured to allow data-containing signals to be sent to and received from an external device, said telemetry means comprising a first telemetry receiver configured to receive data over a first telemetry link, and characterised in that: said bi-directional telemetry means comprises a second telemetry receiver configured to receive data over a second telemetry link. a hermetically-sealed housing wherein an electronic subassembly is housed, said housing having a length no greater than about 27 mm and cross-sectional dimensions no greater than about 3.3 mm; a first electrode external to the hermetically-sealed housing and electrically coupled to said electronic subassembly; a second electrode external to said hermetically-sealed housing and electrically coupled to said electronic subassembly; an antenna coil within said hermetically-sealed housing said antenna coil being arranged around a ferrite core and electrically coupled to said electronic subassembly; self-contained power source means contained within said hermetically-sealed housing and operatively connected to said electronic subassembly for providing operating power to said electronic subassembly; and bi-directional telemetry means coupled to said antenna coil and configured to allow data-containing signals to be sent to and received from an external device, said telemetry means comprising a first telemetry receiver configured to receive data over a first telemetry link, and characterised in that: said bi-directional telemetry means comprises a second telemetry receiver configured to receive data over a second telemetry link.
A rotary machine comprising: • a stationary portion and a rotary portion; • at least one bearing provided with a stationary ring and a rotary ring, the bearing being mounted between said stationary portion and said rotary portion in order to guide the rotary portion in rotation; and • a damper collar interposed between the stationary ring and the stationary portion; wherein said damper collar comprises a flexible strip having tongues cut out therein, and said flexible strip is shaped into a ring around the stationary ring of said bearing, the shaping of the strip into a ring causing the tongues to move outwards from the collar so that the free edges of said tongues come into contact with the stationary portion, wherein said bearing is housed in a tubular cylindrical insert and said damper collar is fastened directly on said tubular cylindrical insert, the rotary machine being characterized in that the damper collar is fastened to said tubular cylindrical insert by screws. • a stationary portion and a rotary portion; • at least one bearing provided with a stationary ring and a rotary ring, the bearing being mounted between said stationary portion and said rotary portion in order to guide the rotary portion in rotation; and • a damper collar interposed between the stationary ring and the stationary portion;
A method for transmitting a synchronization signal, SS, by a user equipment, UE, configured to transmit a public safety, PS, related discovery signal in a Device-to-Device, D2D, communication, the method comprising: receiving first information related to a discovery period for the PS related the discovery signal, receiving second information related to behavior of the UE for transmitting the SS; and transmitting the SS based on the second information, wherein, when the second information informs a first behavior, the SS is transmitted once in the discovery period, and wherein, when the second information informs a second behavior, the SS is transmitted periodically in the discovery period. receiving first information related to a discovery period for the PS related the discovery signal, receiving second information related to behavior of the UE for transmitting the SS; and transmitting the SS based on the second information, wherein, when the second information informs a first behavior, the SS is transmitted once in the discovery period, and wherein, when the second information informs a second behavior, the SS is transmitted periodically in the discovery period.
An integrated light transmission/reception optical system module comprising: a light receiving lens receiving light, concentrating the received light on a light detector disposed at a rear position, and having an optical path groove formed to be directed from a circumference to a central portion and formed to expose a front side; a light source outputting a pulse laser along the optical path groove from the circumference of the light receiving lens toward the central portion of the light receiving lens; and a light transmitting mirror disposed within the optical path groove, located on a path of the pulse laser, and reflecting in a front direction the pulse laser outputted from the light source, wherein the light receiving lens is adapted to receive light reflected from a scan area through all portions except a portion where the optical path groove is formed. a light receiving lens receiving light, concentrating the received light on a light detector disposed at a rear position, and having an optical path groove formed to be directed from a circumference to a central portion and formed to expose a front side; a light source outputting a pulse laser along the optical path groove from the circumference of the light receiving lens toward the central portion of the light receiving lens; and a light transmitting mirror disposed within the optical path groove, located on a path of the pulse laser, and reflecting in a front direction the pulse laser outputted from the light source, wherein the light receiving lens is adapted to receive light reflected from a scan area through all portions except a portion where the optical path groove is formed.
A method, performed by a controller unit, for controlling motion of a watercraft with a hydrofoil, wherein the method comprises: obtaining information indicating shape of water surface in front of the hydrofoil, predicting wave acceleration of the watercraft using a neural network, wherein the neural network is trained to output the wave acceleration using training data for the neural network, wherein the training data is derived from information indicating shape of water surface in front of the hydrofoil, speed of the watercraft, angle of attack of the hydrofoil, "AoA", and measured acceleration, determining a target route and corresponding total acceleration of the watercraft under a set of constraints, wherein the total acceleration is minimized when the watercraft travels according to the target route, wherein the set of constraints includes: a first constraint that the hydrofoil stays within an interval relative to the water surface, and a second constraint relating to magnitude of acceleration of the watercraft derived from maximum AoA and the predicted wave acceleration, and calculating an AoA for the target route based on a difference between the total acceleration as given by the target route and the predicted wave acceleration, and sending a signal for adjusting the hydrofoil according to the AoA, thereby controlling the motion of the watercraft. obtaining information indicating shape of water surface in front of the hydrofoil, predicting wave acceleration of the watercraft using a neural network, wherein the neural network is trained to output the wave acceleration using training data for the neural network, wherein the training data is derived from information indicating shape of water surface in front of the hydrofoil, speed of the watercraft, angle of attack of the hydrofoil, "AoA", and measured acceleration, determining a target route and corresponding total acceleration of the watercraft under a set of constraints, wherein the total acceleration is minimized when the watercraft travels according to the target route, wherein the set of constraints includes: a first constraint that the hydrofoil stays within an interval relative to the water surface, and a second constraint relating to magnitude of acceleration of the watercraft derived from maximum AoA and the predicted wave acceleration, and calculating an AoA for the target route based on a difference between the total acceleration as given by the target route and the predicted wave acceleration, and sending a signal for adjusting the hydrofoil according to the AoA, thereby controlling the motion of the watercraft. a first constraint that the hydrofoil stays within an interval relative to the water surface, and a second constraint relating to magnitude of acceleration of the watercraft derived from maximum AoA and the predicted wave acceleration, and calculating an AoA for the target route based on a difference between the total acceleration as given by the target route and the predicted wave acceleration, and sending a signal for adjusting the hydrofoil according to the AoA, thereby controlling the motion of the watercraft.
Radial fan, in particular for a vacuum cleaner, comprising an impeller which can rotate about an axis of rotation and can be driven by a motor and has a plurality of blades for generating an air current which is at least partially directed outwards, and a stationary guide facility, which has a diffusor plate (13, 32, 48) arranged perpendicularly to the axis of rotation axially adjacent to the impeller, and an annular wall surrounding said diffusor plate (13, 32, 48) radially on the outside and a shell at least partially enclosing the impeller, wherein a continuous annular space surrounding the impeller radially on the outside is formed between the shell, the impeller and the diffusor plate (13, 32, 48), wherein a plurality of openings (33, 50) are embodied between an outer edge of the diffusor plate (13, 32, 48) and the annular wall, enabling a passage of air from the annular space to the side of the diffusor plate (13, 32, 48) opposite the impeller, and wherein the outer edge of the diffusor plate (13, 32, 48), in the region of each opening (33, 50), has at least one edge section subject to incoming flow and at least one overflowed edge section (35, 49), characterised in that the at least one edge section subject to incoming flow encloses an angle γ of at least 50° and at most 65° with a radial direction and is embodied in a curved manner.
A process operated on a computer, comprising: receiving sequence data from a probe that transmits said sequence data; and encoding said sequence data into character codes which can be searched using regular expressions, characterised in that said sequence data include performance metric data which are periodically measured numerical values of monitored attributes of resources (130; H1, H2, D1, D2) of an IT environment, and the method further comprises: storing said encoded sequence data in a directory structure with one directory for each day's worth of data, each directory having one subdirectory for each resource for which performance metric data is being received, where the name of a subdirectory is the signature of the respective resource and the subdirectory contains one attribute file (154, 156) for each group of attributes that are being measured by the performance metric data, wherein each file has sections each holding performance metric values for one attribute of the resource, the performance metric values being encoded as a string of the character codes to which the values have been mapped in the encoding step, said character codes being stored as a comma delimited list, wherein the position of each character code in the comma delimited list denotes the time at which the value was measured. receiving sequence data from a probe that transmits said sequence data; and encoding said sequence data into character codes which can be searched using regular expressions, characterised in that said sequence data include performance metric data which are periodically measured numerical values of monitored attributes of resources (130; H1, H2, D1, D2) of an IT environment, and the method further comprises: storing said encoded sequence data in a directory structure with one directory for each day's worth of data, each directory having one subdirectory for each resource for which performance metric data is being received, where the name of a subdirectory is the signature of the respective resource and the subdirectory contains one attribute file (154, 156) for each group of attributes that are being measured by the performance metric data, wherein each file has sections each holding performance metric values for one attribute of the resource, the performance metric values being encoded as a string of the character codes to which the values have been mapped in the encoding step, said character codes being stored as a comma delimited list, wherein the position of each character code in the comma delimited list denotes the time at which the value was measured.
A multilayer sealing film consisting of a sealable polymer, wherein, surface structures are provided on a first side of the sealing film at least in part, in order to increase the compressibility of the sealing film in the region of the surface structures, and the sealing film has a thickness prior to the introduction of the surface structures in the range of 10 μm to 100 μm, preferably 10 μm to 80 μm and very particularly preferably in the range of from 20 μm to 70 μm, and wherein a slip additive is added to the sealing film in a maximum quantity that results in an S-value of less than 10,000, preferably less than 5,000, in order to achieve a COF relative to steel of dynamically less than 0.3, preferably less than 0.27, and statically less than 0.35, preferably less than 0.3, with the side comprising the surface structures, irrespective of an addition of an antiblock additive to the sealing film.
An illumination device for an optical system of a reader apparatus, the illumination device comprising: an annular hollow body configured to receive a light field acquisition device (11, 12); a light source arranged externally around the annular hollow body; and an external light reflector having a proximal end and a distal end, the external light reflector being configured to guide light originating from the light source to illuminate a zone at the distal end; characterized in that the external light reflector is a hollow piece arranged concentrically to the annular hollow body and with an internal wall made of light reflective material, the internal wall being a surface of revolution having: a first portion with increasing cross sections along a central axis from the proximal end to a first region with maximum cross section, a second portion with decreasing cross sections from the first region to a second region with minimum cross section; wherein the projection of the first portion on the central axis is shorter than the projection of the second portion on the central axis; and in that the illumination device further comprises a reflector element having a mirror finish outer surface arranged in front of the light source and configured to redirect light originating from the light source towards the first portion of the internal wall of the external light reflector. an annular hollow body configured to receive a light field acquisition device (11, 12); a light source arranged externally around the annular hollow body; and an external light reflector having a proximal end and a distal end, the external light reflector being configured to guide light originating from the light source to illuminate a zone at the distal end; characterized in that the external light reflector is a hollow piece arranged concentrically to the annular hollow body and with an internal wall made of light reflective material, the internal wall being a surface of revolution having: a first portion with increasing cross sections along a central axis from the proximal end to a first region with maximum cross section, a second portion with decreasing cross sections from the first region to a second region with minimum cross section; wherein the projection of the first portion on the central axis is shorter than the projection of the second portion on the central axis; and in that the illumination device further comprises a reflector element having a mirror finish outer surface arranged in front of the light source and configured to redirect light originating from the light source towards the first portion of the internal wall of the external light reflector. a first portion with increasing cross sections along a central axis from the proximal end to a first region with maximum cross section, a second portion with decreasing cross sections from the first region to a second region with minimum cross section;