mhurhangee/ep-ind-claims huggingface dataset:
A gear motor consisting of an electric motor having a stator part and a rotor part driving the input shaft of a trochoidal reduction gear comprising: - at least one eccentric area, rigidly connected to the input shaft and rotating at least one toothed outer gear, - a plurality of rods perpendicular to said outer gear, said plurality being rigidly connected to an output shaft and being driven by cavities passing through said outer gear, characterized in that said reduction gear is housed in a rigid monolithic housing defining an inner volume having, from the input shaft to the output shaft, at least four sections with decreasing radii, • a first section defining a peripheral area of mechanical connection with the stator part of the electric motor, • a second section ensuring the mechanical positioning of the guide bearing of the input shaft via a bearing support plate, • a third section having at least one toothed inner surface for meshing said outer gear, • a fourth section ensuring the mechanical positioning of the guide bearing of the output shaft. - at least one eccentric area, rigidly connected to the input shaft and rotating at least one toothed outer gear, - a plurality of rods perpendicular to said outer gear, said plurality being rigidly connected to an output shaft and being driven by cavities passing through said outer gear, • a first section defining a peripheral area of mechanical connection with the stator part of the electric motor, • a second section ensuring the mechanical positioning of the guide bearing of the input shaft via a bearing support plate, • a third section having at least one toothed inner surface for meshing said outer gear, • a fourth section ensuring the mechanical positioning of the guide bearing of the output shaft.
An apparatus, comprising: a transceiver configured to send and receive data; a controller coupled to the transceiver; wherein the controller is configured to determine from a signal received by the transceiver whether a device sending the signal supports a protocol for advertising available services; wherein the controller is configured to send a request for available services from the device sending the signal via the transceiver responsive to determining the device sending the signal supports the protocol, the request comprising state information; wherein the controller is configured to receive a response to the request via the transceiver; wherein the response comprises the state information sent in the request, at least one service advertisement that comprises at least one service brief and a signature generated from at least the state information and the at least one service advertisement; and wherein the controller is configured to validate the signature by determining whether the signature has been generated from the state information sent in the request and the at least one service advertisement. a transceiver configured to send and receive data; a controller coupled to the transceiver; wherein the controller is configured to determine from a signal received by the transceiver whether a device sending the signal supports a protocol for advertising available services; wherein the controller is configured to send a request for available services from the device sending the signal via the transceiver responsive to determining the device sending the signal supports the protocol, the request comprising state information; wherein the controller is configured to receive a response to the request via the transceiver; wherein the response comprises the state information sent in the request, at least one service advertisement that comprises at least one service brief and a signature generated from at least the state information and the at least one service advertisement; and wherein the controller is configured to validate the signature by determining whether the signature has been generated from the state information sent in the request and the at least one service advertisement.
A method of producing a calcium citrate granule, comprising: stirring a hydrated lime slurry (102, 304) with 10 m/s or more of a circumferential velocity of a stir vane in a stirrer; dripping a citric acid aqueous solution onto the slurry while the slurry is being stirred in the stirrer to produce calcium citrate; and spray-drying the calcium citrate, wherein the method further comprises, before the dripping, adding a dispersing agent including cyclodextrin to the slurry and wherein the amount of the added dispersing agent is 5 weight parts to 20 weight parts on the basis of 100 weight parts of a calcium citrate solid content. stirring a hydrated lime slurry (102, 304) with 10 m/s or more of a circumferential velocity of a stir vane in a stirrer; dripping a citric acid aqueous solution onto the slurry while the slurry is being stirred in the stirrer to produce calcium citrate; and spray-drying the calcium citrate, wherein the method further comprises, before the dripping, adding a dispersing agent including cyclodextrin to the slurry and wherein the amount of the added dispersing agent is 5 weight parts to 20 weight parts on the basis of 100 weight parts of a calcium citrate solid content.
Method for loading and melting metal material in a melting plant comprising at least an electric furnace having at least a shell into which said metal material is introduced, and feed means to load said metal material into said shell, said loading and melting method comprising at least a step of loading said metal material into said shell by means of said feed means, a loading and melting step in which said metal material is melted, and a subsequent tapping step in which the molten metal material is tapped, characterized in that during said loading step at least a first substep is provided in which said metal material is loaded inside said shell to generate an initial accumulation of solid material inside said shell comprised between 25% and 45% of the overall quantity of molten material contained inside the furnace before the tapping and which will be tapped at the end of the melting cycle, at least a subsequent second loading and melting substep in which the load with which said metal material is unloaded into the shell is reduced by a control device in such a way that the load of metal material that is charged into the electric furnace in said substep substantially corresponds to the quantity of metal material that is melt, so as to maintain, inside the metal bath that is gradually formed, a quantity of solid mass of said metal material, substantially equal to the quantity of metal material that defines said initial accumulation, and a third substep in which the feed load is further reduced until the loading process is stopped, to allow all the metal material present in the furnace to be completely melted, wherein the tapping step takes place when the whole solid mass has melted.
Electrical connection terminal, wherein - the electrical connection terminal comprises a contact frame with a conductor terminal connection for an electrical conductor, and - the conductor terminal connection is formed on the contact frame by at least one spring element, the free end of which forms a clamping edge which is directed towards the electrical conductor and to which a clamping force is applied, - the contact frame has a contact base, wherein the contact base is extended out of the surface of a planar metal part in such a way that the contact base, from the channel inlet through which an electrical conductor can be inserted into the electrical connection terminal, is designed in an inclined manner, rising in the direction of the clamping point of the conductor terminal connection, in the direction of a conductor, when inserted, wherein the electrical connection terminal has an housing made of insulating material in which the contact frame with the conductor terminal connection is arranged, wherein a first contact region adjoins the contact base at one end at the channel inlet and a second contact region adjoins the said contact base at the other end, characterized in that the first and the second contact region form a plane, and in that the housing inner wall of the housing made of insulating material has, opposite the inclined section of the contact base, a sloping region which is designed so as to be inclined towards a conductor, when inserted, and forms a funnel-like conductor introduction region. - the electrical connection terminal comprises a contact frame with a conductor terminal connection for an electrical conductor, and - the conductor terminal connection is formed on the contact frame by at least one spring element, the free end of which forms a clamping edge which is directed towards the electrical conductor and to which a clamping force is applied, - the contact frame has a contact base, wherein the contact base is extended out of the surface of a planar metal part in such a way that the contact base, from the channel inlet through which an electrical conductor can be inserted into the electrical connection terminal, is designed in an inclined manner, rising in the direction of the clamping point of the conductor terminal connection, in the direction of a conductor, when inserted, wherein the electrical connection terminal has an housing made of insulating material in which the contact frame with the conductor terminal connection is arranged, wherein a first contact region adjoins the contact base at one end at the channel inlet and a second contact region adjoins the said contact base at the other end, characterized in that the first and the second contact region form a plane, and in that the housing inner wall of the housing made of insulating material has, opposite the inclined section of the contact base, a sloping region which is designed so as to be inclined towards a conductor, when inserted, and forms a funnel-like conductor introduction region.
Apparatus for storing and supplying drugs comprising a bearing frame having a vertical extension and a longitudinal extension in respect to a supporting floor, said bearing frame comprising at least a rack formed by a plurality of levels arranged along the vertical extension of said bearing frame, each level of said rack being adapted to house a plurality of drug storing and supplying means (8, 9, 14) containing drugs packed in a tape, each one of said plurality of drug storing and supplying means (8, 9, 14) being adapted to supply a portion of said tape containing one or more drug units selected on the basis of an appropriate prescription, and at least a movable structure for separating and collecting said drugs, characterized in that said movable structure comprises a collecting container and further comprises one or more cutting units each arranged at a respective level of said rack and communicating with a conveyor, said movable structure being adapted to longitudinally slide in respect to said bearing frame to separate one or more supplied portions of said tape from the respective drug storing and supplying means (8, 9, 14) by means of said cutting units, said one or more portions of tape being conveyed through said conveyor towards said collecting container.
A flexible substrate comprising a flexible base, wherein the flexible base is provided with a mesh depression layer in which a mesh current sinking layer is embedded, wherein the mesh depression layer exhibiting a mesh configuration with rectangular openings; and wherein the flexible substrate is made of a photosensitive polymer material; characterized in that the thickness of the mesh current sinking layer is 5-30 nm. wherein the flexible base is provided with a mesh depression layer in which a mesh current sinking layer is embedded, wherein the mesh depression layer exhibiting a mesh configuration with rectangular openings; and wherein the flexible substrate is made of a photosensitive polymer material;
A multilayer fibrous reinforced food casing comprising a fibrous reinforced layer located between an inside layer and an outer layer; wherein the inside layer and the outer layer comprise viscose regenerated cellulose; and the outer layer comprises a peeling agent comprising one or more of polyalkylene glycols and any mixtures thereof, wherein the polyalkylene glycol is polyethylene glycol having molar mass between about 15.000 and about 60.000 g/mol, and wherein the peeling agent is incorporated in the outer layer of the casing; and the inside layer comprises an adhesion promoter comprising one or more of protein coagulants, proteins, glyoxals, glutaraldehyde, caseins, gelatines, wet strengths resins and any mixtures thereof, wherein the amount of the adhesion promoter ranges between about 0.001 and about 0.5 % by weight based on the total dry weight of viscose regenerated cellulose contained in the casing.
A high-pressure radical ethylene polymerization process in which ethylene is polymerized with - a polyunsaturated olefin comprising at least 6 carbon atoms and at least two non-conjugated double bonds of which at least one is terminal; and/or - an alpha-omega-divinylsiloxane according to Formula I wherein R 1 and R 2, which can be alike or different, are selected among alkyl groups having 1-4 carbon atoms and alkoxy groups having 1-4 carbon atoms, and n is 1-200, whereby the high pressure radical ethylene polymerization reaction is performed in a tubular reactor, characterized in that the reaction mixture is heated before entering the reaction zone and the maximum temperature of the reaction mixture prior to introduction into the reaction zone is 150°C or less. - a polyunsaturated olefin comprising at least 6 carbon atoms and at least two non-conjugated double bonds of which at least one is terminal; and/or - an alpha-omega-divinylsiloxane according to Formula I wherein R 1 and R 2, which can be alike or different, are selected among alkyl groups having 1-4 carbon atoms and alkoxy groups having 1-4 carbon atoms, and n is 1-200,
A luminaire comprising: a light source packaged with primary optics; and an elongated light integrator adapted to collect light at an entry port, to integrate the light via a plurality of internal reflections, and to release the light at an injection point which is positioned so the light is released in a collimator, the collimator being adapted to collimate the light released from the injection point into a narrow beam angle light beam; wherein a shape of the entry port mirrors the shape of the light source package's primary optic; and wherein a gap between the light source and the entry port of the light integrator is filled with a light-transmitting adhesive. a light source packaged with primary optics; and an elongated light integrator adapted to collect light at an entry port, to integrate the light via a plurality of internal reflections, and to release the light at an injection point which is positioned so the light is released in a collimator, the collimator being adapted to collimate the light released from the injection point into a narrow beam angle light beam; wherein a shape of the entry port mirrors the shape of the light source package's primary optic; and wherein a gap between the light source and the entry port of the light integrator is filled with a light-transmitting adhesive. wherein a shape of the entry port mirrors the shape of the light source package's primary optic; and wherein a gap between the light source and the entry port of the light integrator is filled with a light-transmitting adhesive.
Rotor cap for an electric generator, characterized in that the rotor cap is produced entirely from fibre-reinforced plastic, wherein the fibres have a preferred direction, characterized in that ventilation slots are provided, which are arranged in the main direction of load of the rotor cap and thus in the preferred direction.
A shield comprising two metal plates (2, 3) disposed to face each other, and a plate-shaped flexible member interposed between the two metal plates (2, 3), characterized in that each of the two metal plates (2, 3) has a plurality of protrusion-depression structures (21a, 21b; 22a, 22b; 31a, 31b; 32a, 32b) in one cross-section and another cross-section that intersects substantially at right angles with the one cross-section, the flexible member can maintain elasticity that resists the protrusion-depression structures (21a, 21b; 22a, 22b; 31a, 31b; 32a, 32b), the two metal plates (2, 3) are disposed to face each other so as to have a positional relation that allows the protrusion-depression structures (21a, 21b; 22a, 22b; 31a, 31b; 32a, 32b) to fit into each other, a gap of a width greater than the thickness of the flexible member is formed between the two metal plates (2, 3) when the flexible member is interposed therebetween, the gap of a width greater than the thickness of the flexible member is formed between a pair of depression and protrusion of the two metal plates (2, 3), and unfilled spaces that are not filled with the flexible member are provided between the two metal plates.
A layered film for use in a medical device comprising a first product component and a second detachable carrier component, the first product component comprising: - a first prime stratum comprising material selected from the group consisting of polyethylenes, polyethylene copolymers, polypropylene copolymers, thermoplastic polyurethanes, thermoplastic polyester elastomers, thermoplastic polyamide elastomers, thermoplastic elastomer compounds, and/or blends thereof; and - a second barrier stratum comprising at least partially inorganic material, wherein an E-modulus (ASTM D882) of the first product component is below 500 MPa and a water vapour transmission rate WVTR (ASTM F1249) of the first product component is below 3 g/m 2 /24h, and wherein - the second detachable carrier component comprises material selected from the group consisting of polyethylenes, polypropylenes, polyesters, polyamides, and/or blends thereof. - a first prime stratum comprising material selected from the group consisting of polyethylenes, polyethylene copolymers, polypropylene copolymers, thermoplastic polyurethanes, thermoplastic polyester elastomers, thermoplastic polyamide elastomers, thermoplastic elastomer compounds, and/or blends thereof; and - a second barrier stratum comprising at least partially inorganic material, wherein an E-modulus (ASTM D882) of the first product component is below 500 MPa and a water vapour transmission rate WVTR (ASTM F1249) of the first product component is below 3 g/m 2 /24h, and wherein wherein an E-modulus (ASTM D882) of the first product component is below 500 MPa and a water vapour transmission rate WVTR (ASTM F1249) of the first product component is below 3 g/m 2 /24h, and wherein - the second detachable carrier component comprises material selected from the group consisting of polyethylenes, polypropylenes, polyesters, polyamides, and/or blends thereof.
An automatic door opening system suitable for use in an electrical device which comprises at least one body having at least one inner chamber, at least one door hinged to the body from one side and controlling access into the inner chamber upon being brought into an opened-closed position, and at least one processing unit for controlling and coordinating functions of the device, the automatic door opening system comprising: at least one rod which allows the door to open by applying a pushing force to the door from one side thereof while moving in a forward direction, and allows the door to be released, such that door is able to be closed by a user, when the rod is brought into the backward position by moving in the backward direction; at least one motor; at least one electrical circuit for allowing the motor to perform bidirectional rotational movement by using a single voltage input; at least one shaft which is in connection with the motor and is able to rotate around its own axis by means of rotational movement of the motor; at least one gear mechanism which is in connection with the shaft and the rod, allows the rod to move forward as a result of rotation of the motor in a first direction by transferring the rotational movement of the motor from the shaft to the rod, and allows the rod to move backward as a result of rotation of the motor in a second direction, characterized by comprising at least one memory unit for storing the time during which the motor performs its rotational movement while the rod is moved forward; and at least one control unit which is in connection with the processing unit, the memory unit and the motor, which, when the rod is in the backward position, allows the motor to move in a first direction when a command for opening the door is received from the processing unit, which allows the motor to stop when the door is brought into the opened position, and which, when a command for releasing the door is received from the processing unit, allows the motor to rotate in the second direction for a time that is stored at the memory unit and equals to the time during which the motor has moved in the first direction, thus allowing the rod to move in the backward direction for as long as it has moved in the forward direction so that the rod is returned to the backward position, wherein said command for opening the door is generated by an algorithm stored in the processing unit or as a result of a process performed by the user.
An assist force calculation method, calculating an assist force for an electrically assisted bicycle, the method comprising: obtaining an instant pedaling force (A[t]) inputted into a pedal (33, 34) of the electrically assisted bicycle from a pedaling force sensor; obtaining a crank advance angle (ω[t]) of a crankshaft of the electrically assisted bicycle from an advance angle sensor having a resolution of less than 90°; and determining the assist force (E[t]) based on at least the instant pedaling force (A[t]) and the crank advance angle (ω[t]), wherein the method further comprises: setting a maximum point of the instant pedaling force (A[t]) as a peak pedaling force; defining an advance angle amount of the crankshaft from an angle at which the peak pedaling force results as the crank advance angle (w[t]); obtaining a virtual pedaling force (D[t]) based on the instant pedaling force (A[t]), the peak pedaling force and the crank advance angle (w[t]); and determining the assist force (E[t]) based on the virtual pedaling force (D[t]). obtaining an instant pedaling force (A[t]) inputted into a pedal (33, 34) of the electrically assisted bicycle from a pedaling force sensor; obtaining a crank advance angle (ω[t]) of a crankshaft of the electrically assisted bicycle from an advance angle sensor having a resolution of less than 90°; and determining the assist force (E[t]) based on at least the instant pedaling force (A[t]) and the crank advance angle (ω[t]), wherein the method further comprises: setting a maximum point of the instant pedaling force (A[t]) as a peak pedaling force; defining an advance angle amount of the crankshaft from an angle at which the peak pedaling force results as the crank advance angle (w[t]); obtaining a virtual pedaling force (D[t]) based on the instant pedaling force (A[t]), the peak pedaling force and the crank advance angle (w[t]); and determining the assist force (E[t]) based on the virtual pedaling force (D[t]). setting a maximum point of the instant pedaling force (A[t]) as a peak pedaling force; defining an advance angle amount of the crankshaft from an angle at which the peak pedaling force results as the crank advance angle (w[t]); obtaining a virtual pedaling force (D[t]) based on the instant pedaling force (A[t]), the peak pedaling force and the crank advance angle (w[t]); and determining the assist force (E[t]) based on the virtual pedaling force (D[t]).