mhurhangee/ep-ind-claims huggingface dataset:
Implantable medical or veterinary device, obtained from a process that comprises mixing particles of a nanostructured phosphocalcic material ranging from 4000 to 37 micrometres (5 to 400 mesh) with one of: a) PLA, PLGA or caprolactone; b) PMMA; or c) a moldable phosphocalcic cementing substance; and sintering the resulting mixture to obtain a composite mineral nanostructured matrix making the mixture fully ceramized; characterized by comprising a matrix resulting from sintering of: a) a mixture of particles of a nanostructured phosphocalcic material ranging from 4000 to 37 micrometres (5 to 400 mesh) and a biodegradable polymer chosen from PLA, PLGA or caprolactone; b) a mixture of particles of a nanostructured phosphocalcic material ranging from 4000 to 37 micrometres (5 to 400 mesh) and PMMA; and c) further comprising absorbed substance which are conductible and releasable during use, preferably the absorbed substance is chosen from proteins, progenitor cells, endogenous cells and/or exogenous cells. a) PLA, PLGA or caprolactone; b) PMMA; or c) a moldable phosphocalcic cementing substance; and sintering the resulting mixture to obtain a composite mineral nanostructured matrix making the mixture fully ceramized; a) a mixture of particles of a nanostructured phosphocalcic material ranging from 4000 to 37 micrometres (5 to 400 mesh) and a biodegradable polymer chosen from PLA, PLGA or caprolactone; b) a mixture of particles of a nanostructured phosphocalcic material ranging from 4000 to 37 micrometres (5 to 400 mesh) and PMMA; and c) further comprising absorbed substance which are conductible and releasable during use, preferably the absorbed substance is chosen from proteins, progenitor cells, endogenous cells and/or exogenous cells.
A method of manufacturing an enteric soft capsule, comprising the following steps (a) and (b): (a) preparing an enteric capsule shell liquid comprising gelatin and low methoxy pectin having a degree of amidation of 5 to 25%, and (b) encapsulating capsule fills using the enteric capsule shell liquid prepared in the step (a) by stamping. (a) preparing an enteric capsule shell liquid comprising gelatin and low methoxy pectin having a degree of amidation of 5 to 25%, and (b) encapsulating capsule fills using the enteric capsule shell liquid prepared in the step (a) by stamping.
Cup member for a flavor inhaler, the cup member being configured to hold tobacco and/or aerosol source and comprising a side wall and a bottom plate, characterized in that at least the side wall and the bottom plate of the cup member are made of a material comprising pulp, a binder, and metal soap, and the cup member is an integrally molded product of a material comprising pulp, binder, and metal soap. at least the side wall and the bottom plate of the cup member are made of a material comprising pulp, a binder, and metal soap, and the cup member is an integrally molded product of a material comprising pulp, binder, and metal soap.
A storage-type hot water supply system that heats fluid for use in supplying hot water and that supplies heat to a heat supply unit, the storage-type hot water supply system comprising: a storage tank configured to store the fluid; a heat source configured to heat the fluid; a first forward path through which the fluid stored in the storage tank is led to the heat source; a first return path through which the fluid led to the heat source is led to the storage tank; a pump provided in the first forward path; a flow switching device provided in the first return path; a second forward path having one end portion communicating with the flow switching device and an other end portion communicating with the heat supply unit; a second return path having one end portion communicating with the heat supply unit and an other end portion communicating with a point between the storage tank and the pump; characterized in further comprising an air release mechanism configured to discharge gas contained in the fluid flowing through the first return path and the second return path; a first vent path having one end portion communicating with a point between the flow switching device and the storage tank, and an other end portion communicating with an inlet of the air release mechanism; a second vent path having one end portion communicating with the second forward path and an other end portion communicating with the inlet of the air release mechanism; and a first check valve provided to the first vent path and configured to permit the fluid to flow toward the inlet of the air release mechanism and prevent a reverse flow of the fluid. a storage tank configured to store the fluid; a heat source configured to heat the fluid; a first forward path through which the fluid stored in the storage tank is led to the heat source; a first return path through which the fluid led to the heat source is led to the storage tank; a pump provided in the first forward path; a flow switching device provided in the first return path; a second forward path having one end portion communicating with the flow switching device and an other end portion communicating with the heat supply unit; a second return path having one end portion communicating with the heat supply unit and an other end portion communicating with a point between the storage tank and the pump; characterized in further comprising an air release mechanism configured to discharge gas contained in the fluid flowing through the first return path and the second return path; a first vent path having one end portion communicating with a point between the flow switching device and the storage tank, and an other end portion communicating with an inlet of the air release mechanism; a second vent path having one end portion communicating with the second forward path and an other end portion communicating with the inlet of the air release mechanism; and a first check valve provided to the first vent path and configured to permit the fluid to flow toward the inlet of the air release mechanism and prevent a reverse flow of the fluid.
An apparatus (200, 300, 400, 500), comprising: a lighting driver circuit (310, 410, 510) configured to receive an input voltage between a pair of input terminals and in response thereto to supply power to one or more light sources; and a housing (200, 400, 500) in which the lighting driver circuit is disposed, characterized in the housing having an electrically insulating inner surface (222, 422, 522) and an electrically insulating outer surface (228, 428, 528) and an electrically conductive electromagnetic shield layer (226, 426, 526) comprising a ferromagnetic material, wherein the electrically conductive electromagnetic shield layer is disposed between the electrically insulating inner surface and the outer electrically insulating surface, wherein the lighting driver circuit is electrically connected to the electrically conductive electromagnetic shield layer of the housing. a lighting driver circuit (310, 410, 510) configured to receive an input voltage between a pair of input terminals and in response thereto to supply power to one or more light sources; and a housing (200, 400, 500) in which the lighting driver circuit is disposed, characterized in the housing having an electrically insulating inner surface (222, 422, 522) and an electrically insulating outer surface (228, 428, 528) and an electrically conductive electromagnetic shield layer (226, 426, 526) comprising a ferromagnetic material, wherein the electrically conductive electromagnetic shield layer is disposed between the electrically insulating inner surface and the outer electrically insulating surface,
A coil comprising a plurality of non-joined turns forming a plurality of substantially parallel coil branches, each turn comprising a rectangular bottom flat section in a bottom plane, a rectangular top flat section in a top plane and two rising sections (12a, 12b, 13), the rising sections (12a, 12b) of two adjacent branches arranged between the two adjacent branches being arranged alternately in a single plane, a coil characterized in that the top and bottom sections corresponding to one and the same turn are aligned with respect to one another and have a larger width than the width of the corresponding rising sections arranged between two adjacent coil branches, the turns fill almost all of the enveloping surface of the coil, a minimum isolating gap separating the adjacent turns.
Pneumatic vehicle tyre for utility vehicles, comprising a carcass, comprising a tyre belt configured radially outside the carcass and comprising a profiled tread which is constructed on the tyre belt, radially outside the tyre belt, wherein the tyre belt is formed from a plurality of tyre belt plies (13, 14, 15) arranged resting one on top of the other from radially on the inside to radially on the outside, at least two of which tyre belt plies (13, 15) are embodied as working plies, wherein the radially inner working ply and the radially outer working ply of the two working plies are tyre belt plies comprising parallel strengthening members (23, 25) which are made of steel and are embedded in rubber, wherein the strengthening members of the radially inner working ply enclose in their orientation an angle α with the circumferential direction U where 10° ≤ α ≤ 24°, and the strengthening members of the radially outer working ply enclose an angle γ with the circumferential direction U where 10° ≤ γ ≤ 24°, wherein viewed in the circumferential direction U of the vehicle tyre the strengthening members of the one working ply have an opposing axial direction of inclination to that of the strengthening members of the other working ply, wherein the adjacent strengthening members of the radially inner working ply of the two working plies (13, 15) in the vehicle tyre are at different distances from one another than the adjacent strengthening members of the radially outer working ply of the two working plies (13, 15), characterized in that a tyre belt ply which is embodied as a zero degree ply is arranged between the two working plies (13, 15), which tyre belt ply comprises parallel strengthening members which are embedded in rubber and which enclose in their orientation an angle β where 0° ≤ β ≤ 5° with the circumferential direction U.
A conductive paste for forming a solar cell electrode comprising a conductive powder, a glass frit, and an organic vehicle, wherein the glass frit is a tellurium-based glass frit containing 30-70 mol% of tellurium, 15-40 mol% of tungsten, 5-30 mol% of zinc, 5-10 mol% of boron, and 1-5 mol% of zirconium in terms of oxides; and the conductive powder contains silver as a main component and has specific surface area of 0.4 m 2 /g or more. the glass frit is a tellurium-based glass frit containing 30-70 mol% of tellurium, 15-40 mol% of tungsten, 5-30 mol% of zinc, 5-10 mol% of boron, and 1-5 mol% of zirconium in terms of oxides; and the conductive powder contains silver as a main component and has specific surface area of 0.4 m 2 /g or more.
A fuel cell comprising: a pair of interconnectors (12, 13); a cell body, which is disposed between the interconnectors (12, 13), and which includes an air electrode on one surface of an electrolyte and a fuel electrode on the other surface; and a current collecting member, which is disposed between at least one of the air electrode and the fuel electrode, and the interconnectors (12, 13), and which is arranged to electrically connect the air electrode and/or the fuel electrode with the interconnectors (12, 13), wherein the current collecting member comprises a connector contact portion that is in contact with the interconnector, a cell body contact portion that is in contact with the cell body, and a connecting portion that is bent into an U-shape and connects the connector contact portion and the cell body contact portion, the connector contact portion, the cell body contact portion and the connecting portion being formed in line, characterized in that the connector contact portion comprises asperities having surface roughness of which ten-point average roughness is Rz ≥ 4 μm on an outside surface that is a surface of the connector contact portion on the side where the connector contact portion is in contact with the interconnector, and wherein the fuel cell comprises a spacer disposed between the connector contact portion and the cell body contact portion that are opposed to each other between the cell body and the interconnector. a pair of interconnectors (12, 13); a cell body, which is disposed between the interconnectors (12, 13), and which includes an air electrode on one surface of an electrolyte and a fuel electrode on the other surface; and a current collecting member, which is disposed between at least one of the air electrode and the fuel electrode, and the interconnectors (12, 13), and which is arranged to electrically connect the air electrode and/or the fuel electrode with the interconnectors (12, 13), wherein the current collecting member comprises a connector contact portion that is in contact with the interconnector, a cell body contact portion that is in contact with the cell body, and a connecting portion that is bent into an U-shape and connects the connector contact portion and the cell body contact portion, the connector contact portion, the cell body contact portion and the connecting portion being formed in line, characterized in that the connector contact portion comprises asperities having surface roughness of which ten-point average roughness is Rz ≥ 4 μm on an outside surface that is a surface of the connector contact portion on the side where the connector contact portion is in contact with the interconnector, and wherein the fuel cell comprises a spacer disposed between the connector contact portion and the cell body contact portion that are opposed to each other between the cell body and the interconnector.
A multi-layer oral thin film comprising a first and a second matrix layer, which each contain at least one polymer, and a separation layer located between the first and the second matrix layer, wherein the separation layer comprises at least one polyethylene glycol with a molecular weight of from 8,000 g/mol to 7,000,000 g/mol in an amount of from 60 to 100 wt.%.
A method performed by a wireless communications system, the system comprising an access point, AP, or a personal basic service set, PBSS, control point, PCP, AP/PCP, and the system further comprising one or more stations, the method comprising: generating, by AP/PCP, the a management frame that indicates, for a plurality of designated channels, which of the designated channels are operating and which are non-operating, the management frame having bit positions that each represent a respective designated channel, and a respective bit value of each bit position indicates the operating or the non-operating of the respective designated channel; and transmitting, by the AP/PCP, the management frame to the one or more stations, wherein, the management frame is transmitted over a primary channel selected from the designated channels that are indicated as operating; wherein the method further comprises: receiving, by the AP/PCP, in response to the management frame, a sector sweep, SSW, frame from an individual station included in the one or more stations, wherein the SSW frame is received over the primary channel or a secondary channel, wherein the secondary channel is randomly selected, by the individual station, from the designated channels that are indicated as operating. generating, by AP/PCP, the a management frame that indicates, for a plurality of designated channels, which of the designated channels are operating and which are non-operating, the management frame having bit positions that each represent a respective designated channel, and a respective bit value of each bit position indicates the operating or the non-operating of the respective designated channel; and transmitting, by the AP/PCP, the management frame to the one or more stations, wherein, the management frame is transmitted over a primary channel selected from the designated channels that are indicated as operating; wherein the method further comprises: receiving, by the AP/PCP, in response to the management frame, a sector sweep, SSW, frame from an individual station included in the one or more stations, wherein the SSW frame is received over the primary channel or a secondary channel, wherein the secondary channel is randomly selected, by the individual station, from the designated channels that are indicated as operating.
Unmanned aircraft with at least one on-board computer on which operational software runs, and an associated program memory in which the operational software is stored, with test software also stored in the program memory for checking the operating capability of the aircraft and/or of its components, said test software being developed for running on the on-board computer of the aircraft, wherein the aircraft can be connected to an external service device which has the test hardware required for testing, and wherein the test hardware of the external service device can be controlled by the test software running on the on-board computer of the aircraft, characterised in that by means of the test software running on the on-board computer of the aircraft at least the following components of the service device can be operated: - at least a flow measurement device for at least a test/service fluid to be supplied to the aircraft; - at least a switchable valve for the test/service fluid; - switching and control devices for electrical energy to be supplied for the aircraft; - at least an isolating transformer (29A, 29B) for isolating externally supplied electrical energy from the power network of the service device. - at least a flow measurement device for at least a test/service fluid to be supplied to the aircraft; - at least a switchable valve for the test/service fluid; - switching and control devices for electrical energy to be supplied for the aircraft; - at least an isolating transformer (29A, 29B) for isolating externally supplied electrical energy from the power network of the service device.
A radiofrequency communication device comprising at least one TORP signal generation circuit, the TORP signal corresponding to oscillations trains periodically repeated at a frequency F PRP for which the oscillation frequency is F OL > F PRP and for which each oscillations train lasts for a duration of less than 1/F PRP, and at least one multiplier circuit (108, 120) for which an input is coupled to an output of the TORP signal generation circuit such that it is capable of multiplying the TORP signal with a baseband signal comprising information intended to be transmitted by the radiofrequency communication device and/or with a radiofrequency signal intended to be received by the radiofrequency communication device.
An electrolyte solution comprising: - a solvent that contains a fluorinated acyclic carbonate having a fluorine content of 33-70 mass%; - an organosilicon compound of formula: (R 11) n11 -M 11 -O-SiR 12 R 13 R 14 wherein M 11 is a metal atom, P, B, or P=O; R 11 each independently is C 1-11 -alkyloxy, silyloxy, or C 1-11 -alkylsilyloxy, n 11 is the number of R 11 s binding to M 11, and is the oxidation number of M 11 minus 1 or the oxidation number of M 11 minus 3, and R 12 -R 14 each independently are C 1-11 -alkyl, C 2-11 -alkenyl, C 1-11 -alkyloxy or C 6-11 -aryl; - a lithium salt that contains an oxalato-complex as an anion; and - a lithium salt of the formula Li z M 31 F x O y, wherein M 31 is P, As, or Sb, x is an integer of ≥ 1 with x = 7-(2y+z), y is an integer of 1-3, and z is 1 or 2. - a solvent that contains a fluorinated acyclic carbonate having a fluorine content of 33-70 mass%; - an organosilicon compound of formula: (R 11) n11 -M 11 -O-SiR 12 R 13 R 14 wherein M 11 is a metal atom, P, B, or P=O; R 11 each independently is C 1-11 -alkyloxy, silyloxy, or C 1-11 -alkylsilyloxy, n 11 is the number of R 11 s binding to M 11, and is the oxidation number of M 11 minus 1 or the oxidation number of M 11 minus 3, and R 12 -R 14 each independently are C 1-11 -alkyl, C 2-11 -alkenyl, C 1-11 -alkyloxy or C 6-11 -aryl; M 11 is a metal atom, P, B, or P=O; R 11 each independently is C 1-11 -alkyloxy, silyloxy, or C 1-11 -alkylsilyloxy, n 11 is the number of R 11 s binding to M 11, and is the oxidation number of M 11 minus 1 or the oxidation number of M 11 minus 3, and R 12 -R 14 each independently are C 1-11 -alkyl, C 2-11 -alkenyl, C 1-11 -alkyloxy or C 6-11 -aryl; - a lithium salt that contains an oxalato-complex as an anion; and - a lithium salt of the formula Li z M 31 F x O y, wherein M 31 is P, As, or Sb, x is an integer of ≥ 1 with x = 7-(2y+z), y is an integer of 1-3, and z is 1 or 2. M 31 is P, As, or Sb, x is an integer of ≥ 1 with x = 7-(2y+z), y is an integer of 1-3, and z is 1 or 2.
Process line for the production of chocolate with different process stages (4, 6, 8, 10), wherein at least one mixing arrangement for mixing chocolate ingredients, a grinding arrangement (20, 22) and a conching arrangement (24, 26) are provided as the respective process stage (4, 6, 8, 10), wherein a control device is provided which controls the adding of at least one chocolate ingredient to the mixing arrangement as a function of measurement data from the conching arrangement (24, 26), wherein the control device is connected to each process stage (4, 6, 8, 10) in a control-related manner and wherein at least one sensor arrangement (31, 36, 40, 42, 43, 46, 50, 52, 56), which is connected in a control-related manner to the control device, is assigned to each process stage (4, 6, 8, 10) in such a way that each process stage (4, 6, 8, 10) can be controlled individually or in combination with other process stages (4, 6, 8, 10) by the control device, characterized in that the mixing arrangement is provided with a plasticity sensor, wherein the grinding arrangement comprises a pre-grinding arrangement and a main grinding arrangement (20, 22), wherein the main grinding arrangement comprises a thin film liquid unit on the pairs of rollers or between the rollers, wherein the conching arrangement (24, 26) comprises as sensor arrangement at least one spectroscopy sensor and/or an air space sensor for monitoring organic volatiles, by means of which the basic parameters of the individual process stages (4, 6, 8, 10) are to be optimized as a function of their interaction.