mhurhangee/patent-ind-claim-en huggingface dataset:
Pump group for a cooling circuit of the engine of a vehicle, comprising: - an impeller rotatable about an axis (X-X), comprising: i) a paddle portion ; and ii) a support portion extends axially along the axis (X-X) and is placed behind the paddle portion having a support surface placed in a distal position from the axis (X-X), preferably having a circular shape; - a rotation body which extends along the axis (X-X) integrally connected to the impeller to move it in rotation, wherein the rotation body is a rotation shaft or central hub; - a mechanical drive and an electric drive comprising an electric engine ; wherein the mechanical drive and the electric drive are respectively operatively connected to said rotation body by a first one-way coupling and a second one-way coupling ; wherein the pump group comprises a support and centering bearing positioned on the support surface to support and keep the impeller centred on the axis (X-X). - an impeller rotatable about an axis (X-X), comprising: i) a paddle portion ; and ii) a support portion extends axially along the axis (X-X) and is placed behind the paddle portion having a support surface placed in a distal position from the axis (X-X), preferably having a circular shape; i) a paddle portion ; and ii) a support portion extends axially along the axis (X-X) and is placed behind the paddle portion having a support surface placed in a distal position from the axis (X-X), preferably having a circular shape; - a rotation body which extends along the axis (X-X) integrally connected to the impeller to move it in rotation, wherein the rotation body is a rotation shaft or central hub; - a mechanical drive and an electric drive comprising an electric engine ;
Method for producing a single-phase layer from intermetallic compounds on a substrate , comprising a) providing a substrate, b) positioning the substrate in a process chamber of a DC magnetron sputtering system and evacuating the process chamber, wherein in each case at least one cathode is arranged in the process chamber, with a surface made of an intermetallic compound pointing towards the substrate, c) simultaneous transferring of material components out of the cathodes into a plasma, with the use of a noble gas as a sputtering gas, d) simultaneous depositing of the material components from the plasma to an intermetallic layer with a single-phase structure on the substrate, and e) removing the substrate with the deposited intermetallic layer out of the process chamber, wherein f) the intermetallic compound of the at least one cathode is present as a single phase, and specifically also as far as into the atomic range, g) the single-phase layer can also contain further possible phases, such as impurities, but which do not consist of the element combinations of the intermetallic compound, h) the intermetallic compound is an intermetallic compound of the type Ga x Pd y or Al 13 Fe 4 , and the intermetallic layer is an intermetallic layer of the type Ga x Pd y or Al 13 Fe 4 , and i) the single-phase nature of the deposited intermetallic layer can be testes by means of X-ray structure (diffraction) analysis (XRD), wherein the phase composition is reproduced in the diffractograms, wherein the single-phase nature can be proved by the exclusive occurrence of the characteristic reflexes in the diffractogram. a) providing a substrate, b) positioning the substrate in a process chamber of a DC magnetron sputtering system and evacuating the process chamber, wherein in each case at least one cathode is arranged in the process chamber, with a surface made of an intermetallic compound pointing towards the substrate, c) simultaneous transferring of material components out of the cathodes into a plasma, with the use of a noble gas as a sputtering gas, d) simultaneous depositing of the material components from the plasma to an intermetallic layer with a single-phase structure on the substrate, and e) removing the substrate with the deposited intermetallic layer out of the process chamber, wherein f) the intermetallic compound of the at least one cathode is present as a single phase, and specifically also as far as into the atomic range, g) the single-phase layer can also contain further possible phases, such as impurities, but which do not consist of the element combinations of the intermetallic compound, h) the intermetallic compound is an intermetallic compound of the type Ga x Pd y or Al 13 Fe 4 , and the intermetallic layer is an intermetallic layer of the type Ga x Pd y or Al 13 Fe 4 , and i) the single-phase nature of the deposited intermetallic layer can be testes by means of X-ray structure (diffraction) analysis (XRD), wherein the phase composition is reproduced in the diffractograms, wherein the single-phase nature can be proved by the exclusive occurrence of the characteristic reflexes in the diffractogram.
A medical device for the treatment of an abdominal aortic aneurysm in a patient, the device comprising: an expandable member adapted for delivery into and expansion within the patient; a tube in fluid communication with a space inside the expandable member, or a tube positioned directly into the expandable member; a thermally activated low temperature free radical initiator in powder form present in or disposed on the upstream side of a filter upstream of the expandable member, in the expandable member itself, or in a container in communication with the expandable member, wherein a flowable aqueous solution comprising a first and a second water soluble polymer precursor, each water soluble polymer precursor having terminal functional groups, is arranged to flow within the tube or directly to the expandable member and to dissolve the free radical initiator, an initiator catalyst is either present in the flowable aqueous solution or added after the free radical initiator is dissolved; and wherein the solution and initiator are adapted such that functional groups on the water soluble polymer precursors undergo covalent bonding to form a solid and substantially non-biodegradable material in the space inside the expandable member in situ. an expandable member adapted for delivery into and expansion within the patient; a tube in fluid communication with a space inside the expandable member, or a tube positioned directly into the expandable member; a thermally activated low temperature free radical initiator in powder form present in or disposed on the upstream side of a filter upstream of the expandable member, in the expandable member itself, or in a container in communication with the expandable member, wherein a flowable aqueous solution comprising a first and a second water soluble polymer precursor, each water soluble polymer precursor having terminal functional groups, is arranged to flow within the tube or directly to the expandable member and to dissolve the free radical initiator, an initiator catalyst is either present in the flowable aqueous solution or added after the free radical initiator is dissolved; and wherein the solution and initiator are adapted such that functional groups on the water soluble polymer precursors undergo covalent bonding to form a solid and substantially non-biodegradable material in the space inside the expandable member in situ.
A method for determination of a filling level of a product contained in a tank using a radar level gauge system , comprising the steps of: generating and transmitting an electromagnetic signal (S T ); propagating said transmitted electromagnetic signal (S T ) towards said product in the tank using a probe arranged to extend into said product and configured to guide electromagnetic signals; receiving echo signals (S R ) resulting from reflections at impedance transitions encountered by said transmitted electromagnetic signal (S T ); classifying one of said echo signals as a surface echo signal resulting from reflection at a surface of said product inside the tank; evaluating an additional echo signal ; and determining said filling level based on said surface echo signal , characterized in that the method further comprises the step of: providing, if an amplitude of said additional echo signal is greater than a predetermined disturbance echo threshold , a signal indicative of a presence of a disturbance echo to an operator of said radar level gauge system . generating and transmitting an electromagnetic signal (S T ); propagating said transmitted electromagnetic signal (S T ) towards said product in the tank using a probe arranged to extend into said product and configured to guide electromagnetic signals; receiving echo signals (S R ) resulting from reflections at impedance transitions encountered by said transmitted electromagnetic signal (S T ); classifying one of said echo signals as a surface echo signal resulting from reflection at a surface of said product inside the tank; evaluating an additional echo signal ; and determining said filling level based on said surface echo signal , characterized in that the method further comprises the step of: providing, if an amplitude of said additional echo signal is greater than a predetermined disturbance echo threshold , a signal indicative of a presence of a disturbance echo to an operator of said radar level gauge system .
A production method of chocolate, praline and similar products without refined sugar, characterized by comprising below steps: - Mixing powdered cacao, powdered milk and powdered dried sugar beet as raw materials, for a period of 5±2 minutes and at 40±5°C until a homogenous mixture is achieved, - Refining the homogenous mixture first by double roller and then by quintuple roller until particle size of 10-50 micrometers, preferably 15-40 micrometers is achieved, - Subjecting the chocolate mixture pulverized after refining process, to conching process which is carried out for a period in the range of 4-72 hours and at a temperature range of 45-85°C, - Subjecting the chocolate to tempering process in order to prevent the polymorphic cacao butter content therein to form unstable crystals that leads to undesirable fat blooming, by cooling the chocolate mixture from 45-50°C to 27-29°C in a controlled fashion and reheating the chocolate mixture to 30-32°C, - Filling the tempered chocolate into molds or applying coating of the chocolate on products, - Cooling the chocolate filled into molds or coated on the products in the cooling tunnel at a temperature range of 10-18°C for solidifying for a period of 10-60 minutes. - Mixing powdered cacao, powdered milk and powdered dried sugar beet as raw materials, for a period of 5±2 minutes and at 40±5°C until a homogenous mixture is achieved, - Refining the homogenous mixture first by double roller and then by quintuple roller until particle size of 10-50 micrometers, preferably 15-40 micrometers is achieved, - Subjecting the chocolate mixture pulverized after refining process, to conching process which is carried out for a period in the range of 4-72 hours and at a temperature range of 45-85°C, - Subjecting the chocolate to tempering process in order to prevent the polymorphic cacao butter content therein to form unstable crystals that leads to undesirable fat blooming, by cooling the chocolate mixture from 45-50°C to 27-29°C in a controlled fashion and reheating the chocolate mixture to 30-32°C, - Filling the tempered chocolate into molds or applying coating of the chocolate on products, - Cooling the chocolate filled into molds or coated on the products in the cooling tunnel at a temperature range of 10-18°C for solidifying for a period of 10-60 minutes.
A diverter or flow controller (1.060) for controlling a flow on or within an apparatus for mineral processing, including at least one diverter or flow controller element (1.065) and characterised by a plurality of displacement members (1.064) adapted to move at least part of the diverter or flow controller element (1.065) into or out of contact with a flow path, wherein said plurality of displacement members (1.064) are each separately actuatable.
Layered composite for an aircraft or spacecraft containing coated first carbon fibres, the coating being electrically insulating and poly(meth)acrylic acid polyglycol esters being used as the insulating coating of the individual fibres.
A device cooperation method, wherein the method is performed by a primary device, the primary device pre-establishes communication connections to a plurality of secondary devices, and the method comprises: receiving (S11) a to-be-processed event; recognizing (S12) an event type and event information of the to-be-processed event; obtaining (S13) device information of each of the plurality of secondary devices; obtaining (S14) a device filtering condition corresponding to the event type, wherein the device filtering condition is used to indicate device information of a secondary device matching the event type; determining (S15) based on the device information of each of the plurality of secondary devices, a first secondary device that meets the device filtering condition; and sending (S16) the event type and the event information to the first secondary device when the primary device determines that a data type of the event information is a data type supported by the first secondary device, wherein after the determining based on the device information of the plurality of secondary devices, a first secondary device that meets the filtering condition, the method further comprises: when the primary device determines that the data type of the event information is a data type not supported by the first secondary device, converting the event information into a data type supported by the first secondary device, to obtain target data; and sending the event type and the target data to the first secondary device. receiving (S11) a to-be-processed event; recognizing (S12) an event type and event information of the to-be-processed event; obtaining (S13) device information of each of the plurality of secondary devices; obtaining (S14) a device filtering condition corresponding to the event type, wherein the device filtering condition is used to indicate device information of a secondary device matching the event type; determining (S15) based on the device information of each of the plurality of secondary devices, a first secondary device that meets the device filtering condition; and sending (S16) the event type and the event information to the first secondary device when the primary device determines that a data type of the event information is a data type supported by the first secondary device, wherein after the determining based on the device information of the plurality of secondary devices, a first secondary device that meets the filtering condition, the method further comprises: when the primary device determines that the data type of the event information is a data type not supported by the first secondary device, converting the event information into a data type supported by the first secondary device, to obtain target data; and sending the event type and the target data to the first secondary device. when the primary device determines that the data type of the event information is a data type not supported by the first secondary device, converting the event information into a data type supported by the first secondary device, to obtain target data; and sending the event type and the target data to the first secondary device.
A multisite heterogeneous catalyst suitable for reactions of olefin polymerization and olefin and alpha-olefin copolymerization characterized by comprising a support and, in its active composition, a titanium oxopolymer, the latter being an organometallic chemical compound having oligomeric structure and chemical formula given in Equation 1 below: (R a ) p M a (O-Ti-O) n M b (R b ) q where: (O - Ti - O) is the monomeric unit of the oligomer formed by n units; R a,b are alike or different substituents, and may be a halogen or, then, an alkoxy group of linear or branched or cyclic or even aromatic chain; Ma,b are alike or different and may be transition metals of groups 4, 5 or 6 or, even, semi-metals of group 14 of the periodic table, wherein subindexes p and q of the substituents must satisfy the coordination number of the respective M, and the polymerization level n must be higher than or equal to 3, wherein the support is pre-treated with a Ziegler-Natta catalyst.
An abutment fixing apparatus for precisely clamping a processing abutment to be processed into a customized abutment in an artificial tooth processing apparatus , the abutment fixing apparatus comprising: - a holder adapted to hold the abutment fixing apparatus to the artificial tooth processing apparatus , - an abutment installation unit comprising a body connected to the holder and one installation recess into which one abutment can be inserted, wherein the abutment installation unit and the holder together form a '⊏' shape, the holder being formed at a first portion of the abutment installation unit , the abutment fixing apparatus further comprising one fixing unit connected to the body and fixing the abutment at a desired position of the installation recess , the fixing unit being adapted to move the abutment in a direction equal to an insertion direction of the abutment into the installation recess to fix the abutment at the desired position of the installation recess , wherein the installation recess is formed at a second portion of the abutment installation unit which is opposite to the first portion of the abutment installation unit ; wherein the fixing unit comprises a fixing bolt , and a fixing recess positioned at a center portion of the installation recess , wherein the fixing bolt is adapted to clamp a lower portion of the abutment received in the corresponding installation recess in that the abutment cannot move when inserted into the fixing recess by an operation of the fixing bolt because of a difference between respective diameters of the installation recess and the fixing recess , the abutment fixing apparatus being characterized in that the fixing recess functions as a passage of the fixing bolt , the fixing recess and the installation recess thereby forming a hole penetrating the second portion of the abutment installation unit , wherein the installation recess has a planar shape adapted to correspond to a shape of the lower portion of the abutment , wherein the planar shape of the installation recess is of any one of a letter "D" shape and a polygonal shape. - a holder adapted to hold the abutment fixing apparatus to the artificial tooth processing apparatus , - an abutment installation unit comprising a body connected to the holder and one installation recess into which one abutment can be inserted,
A position capturing system comprising: a vehicle provided with a marker detecting part which magnetically detects a magnetic marker laid in a road and determines a polarity of the magnetic marker and a positioning part which measures a position; a position information storage part having stored therein laying positions of each of magnetic markers linked with polarity information indicating the polarity of the magnetic marker ; and a position capturing part which selects, when any of the magnetic markers is detected, a laying position corresponding to said any magnetic marker from among the laying positions stored in the position information storage part and captures the laying position or a corrected position with reference to the laying position as a position of the vehicle , characterised in that the position capturing part sets a specified area (GC, GC1, GC2) with reference to a measured position (MP, MP1, MP2) by the positioning part at a time of detection of said any magnetic marker and selects, from among the laying positions located in the specified area (GC, GC1, GC2), a laying position linked with the polarity information which complies with the polarity of the magnetic marker detected by the marker detecting part . a vehicle provided with a marker detecting part which magnetically detects a magnetic marker laid in a road and determines a polarity of the magnetic marker and a positioning part which measures a position; a position information storage part having stored therein laying positions of each of magnetic markers linked with polarity information indicating the polarity of the magnetic marker ; and a position capturing part which selects, when any of the magnetic markers is detected, a laying position corresponding to said any magnetic marker from among the laying positions stored in the position information storage part and captures the laying position or a corrected position with reference to the laying position as a position of the vehicle , characterised in that the position capturing part sets a specified area (GC, GC1, GC2) with reference to a measured position (MP, MP1, MP2) by the positioning part at a time of detection of said any magnetic marker and selects, from among the laying positions located in the specified area (GC, GC1, GC2), a laying position linked with the polarity information which complies with the polarity of the magnetic marker detected by the marker detecting part .
Detection system configured to be operationally connectable to a front portion of a gripping group for gripping at least one tool supported in cantilever way along a support shaft , wherein said detection system comprises a detection unit comprising, in turn, at least one photoelectric sensor configured for emitting an optical signal along a radial direction orthogonal to a central axis for the movement of said gripping group , for detecting the presence of said at least one tool , wherein said optical signal is oriented with a direction starting from said central axis moving away from it, characterised in that said detection system further comprises at least one plate-like support to which said at least one photoelectric sensor is operatively connected so as to define an optical plane along which the optical signal emitted by said at least one sensor photoelectric lies.
Oxygen separation device for a pressure swing adsorption system, comprising a gas inlet at a primary side for guiding a flow of oxygen comprising gas into the oxygen separation device and a gas outlet at a secondary side for guiding a flow of oxygen enriched gas out of the oxygen separation device , an oxygen separation membrane comprising an oxygen separation sorbent being capable of separating oxygen from an oxygen comprising gas by sorbing at least one component of the oxygen comprising gas apart from oxygen, and a support structure for supporting the oxygen separation membrane , wherein the support structure comprises a plurality of support bars being fixed to the oxygen separation membrane , and wherein the support bars are provided at the primary side of the oxygen separation device.