mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound probe adapted to communicate with an ultrasound system, the ultrasound probe comprising: a transducer array configured to generate analog ultrasound signals; analog in-phase/quadrature (I/Q) mixers (382, 384) disposed within a housing of the ultrasound probe and in communication with the transducer array, wherein the analog I/Q mixers are configured to generate analog continuous wave Doppler signals based on the analog ultrasound signals; and a cable coupled to the housing, wherein the cable is configured to transmit the analog CW Doppler signals from the ultrasound probe to the ultrasound system. a transducer array configured to generate analog ultrasound signals; analog in-phase/quadrature (I/Q) mixers (382, 384) disposed within a housing of the ultrasound probe and in communication with the transducer array, wherein the analog I/Q mixers are configured to generate analog continuous wave Doppler signals based on the analog ultrasound signals; and a cable coupled to the housing, wherein the cable is configured to transmit the analog CW Doppler signals from the ultrasound probe to the ultrasound system.
A method for radio communication within a mobile radio communications network comprising: receiving, by at least one mobile station information from at least one first radio network node serving radio cells (Bsa6-N-h0, Bsa6-SW-h0, Bsa6-SE-h0) providing multicast communication; and communicating, by the at least one mobile station with at least one second radio network node serving radio cells (Bsa9-NE-h1) providing unicast communication; and transmitting information regarding multicast communication from the at least one mobile station to the at least one second radio network node and the at least one first radio network node via at least one connection established between said first and said second radio network node, and wherein the mobile radio communications network is structured by multiple radio cell layers served by at least one radio network node (BSa6, Bsa9, Bsa7) and said at least one connection being established in any one of said radio cell layers is supported by radio resources of any other radio cell layer. receiving, by at least one mobile station information from at least one first radio network node serving radio cells (Bsa6-N-h0, Bsa6-SW-h0, Bsa6-SE-h0) providing multicast communication; and communicating, by the at least one mobile station with at least one second radio network node serving radio cells (Bsa9-NE-h1) providing unicast communication; and transmitting information regarding multicast communication from the at least one mobile station to the at least one second radio network node and the at least one first radio network node via at least one connection established between said first and said second radio network node, and wherein the mobile radio communications network is structured by multiple radio cell layers served by at least one radio network node (BSa6, Bsa9, Bsa7) and said at least one connection being established in any one of said radio cell layers is supported by radio resources of any other radio cell layer.
Short range wireless communication system comprising a short range wireless communication sensor (1,5) and a mobile terminal adapted to interact with said short range wireless communication sensor (1,5), wherein said mobile terminal comprises detecting means adapted to detect at least a movement of said mobile terminal following an interaction with said short range wireless communication sensor (1,5) and wherein said mobile terminal comprises control means, particularly a microprocessor, adapted to control at least an operation based on said at least a movement and said interaction with said short range wireless communication sensor (1,5), said short range wireless communication sensor (1,5) comprising association information between said at least an operation and said at least a movement of said mobile terminal, wherein said system further comprises at least an actuator adapted to carry out said at least an operation at a reception of a specific command and driven by a remote electronic device operatively coupled to said mobile terminal, and said remote electronic device comprises a memory for storing a table which maps a mobile terminal identifier to operations the remote electronic device is allowed to carry out so that when the specific command is wirelessly sent from said mobile terminal to the remote electronic device together with said mobile terminal identifier, the remote electronic device is adapted to check whether the mobile terminal identifier is present in the table and whether the remote electronic device is authorised to perform the requested operation and, in a positive case, said remote electronic device is adapted to cause said actuator to perform said operation.
A security sheet for displaying personal data comprising a plastic substrate and a reinforcement layer embedded within the plastic substrate, the reinforcement layer characterised by being formed from a material which is different from and harder than that from which the plastic substrate is formed, and in that the reinforcement layer is permeable such that plastic substrate is fused through the reinforcement layer.
A brake dust collector assembly comprising: a brake dust collector, a pad module including a pair of brake pads that are respectively disposed on both sides of a disc rotating together with a wheel and are in close contact with or separated from the disc according to a forward and backward movement of a piston; a housing provided to cover a part of the disc by forming a pad module seat provided between a leading portion and a trailing portion and to which the pad module is coupled, and filter module seats at inner sides of the leading portion and the trailing portion, respectively; and characterised by a filter module fixed to each of the filter module seats by a fastening member that penetrates and fastens from one side to the other side of the housing. a pad module including a pair of brake pads that are respectively disposed on both sides of a disc rotating together with a wheel and are in close contact with or separated from the disc according to a forward and backward movement of a piston; a housing provided to cover a part of the disc by forming a pad module seat provided between a leading portion and a trailing portion and to which the pad module is coupled, and filter module seats at inner sides of the leading portion and the trailing portion, respectively; and characterised by a filter module fixed to each of the filter module seats by a fastening member that penetrates and fastens from one side to the other side of the housing.
A heart valve prosthesis, comprising: a first member comprising a first central portion to be disposed adjacent to a line of coaptation on a first side of two adjacent heart leaflets andperipheral portions to be placed into direct contact with the two adjacent heart leaflets; and a second member separate from the first member the second member comprising a central portion and peripheral portions configured to be placed into direct contact with a second side of the two adjacent heart leaflets, the peripheral portions (408, 478) are disposed between the central portion and lateral ends of the second member; characterized in that the first member comprises a first hinge portion located at the central portion and one of the peripheral portions of the second member comprises a second hinge portion, so that the first member is allowed to rotate about the second member during delivery of the prosthesis; wherein the first hinge portion comprises a first curved surface that at least partially surrounds a first transverse axis of the first member, the first transverse axis being substantially perpendicular to a first longitudinal axis of the first member that extends between the peripheral portions (408, 478); and wherein the first curved surface is configured to mate with a corresponding curved surface of the second hinge portion of the second member. a first member comprising a first central portion to be disposed adjacent to a line of coaptation on a first side of two adjacent heart leaflets andperipheral portions to be placed into direct contact with the two adjacent heart leaflets; and a second member separate from the first member the second member comprising a central portion and peripheral portions configured to be placed into direct contact with a second side of the two adjacent heart leaflets, the peripheral portions (408, 478) are disposed between the central portion and lateral ends of the second member; characterized in that the first member comprises a first hinge portion located at the central portion and one of the peripheral portions of the second member comprises a second hinge portion, so that the first member is allowed to rotate about the second member during delivery of the prosthesis; wherein the first hinge portion comprises a first curved surface that at least partially surrounds a first transverse axis of the first member, the first transverse axis being substantially perpendicular to a first longitudinal axis of the first member that extends between the peripheral portions (408, 478); and wherein the first curved surface is configured to mate with a corresponding curved surface of the second hinge portion of the second member.
A method of operation of a receiving node to perform polar decoding for polar code of code length N, comprising: transforming a received code bit vector y N in accordance with a transformation matrix T N that re-orders coded bits in the received coded bit vector to thereby provide a transformed code bit vector y N ′ = y N T N; performing polar decoding of the transformed code bit vector y N ′ to thereby provide a transformed data bit vector v N ′; and inversely transforming the transformed data bit vector v N ′ in accordance with an inverse transformation matrix T N − 1 to thereby provide an estimated data bit vector v N = v N ′ T N − 1, wherein T N − 1 is the inverse of T N; the method further comprising performing the steps of transforming, decoding, and inversely transforming for each of a plurality of different transformation matrices T N to thereby provide a plurality of estimated data bit vectors. transforming a received code bit vector y N in accordance with a transformation matrix T N that re-orders coded bits in the received coded bit vector to thereby provide a transformed code bit vector y N ′ = y N T N; performing polar decoding of the transformed code bit vector y N ′ to thereby provide a transformed data bit vector v N ′; and inversely transforming the transformed data bit vector v N ′ in accordance with an inverse transformation matrix T N − 1 to thereby provide an estimated data bit vector v N = v N ′ T N − 1, wherein T N − 1 is the inverse of T N; the method further comprising performing the steps of transforming, decoding, and inversely transforming for each of a plurality of different transformation matrices T N to thereby provide a plurality of estimated data bit vectors.
A camera module, comprising: a control body, comprising a circuit board, and a spatial magnetic field sensing member disposed on the circuit board; a lens assembly, configured to be controlled to move between an initial position and a pop-up position, so as to generate relative displacement between the lens assembly and the spatial magnetic field sensing member; and at least one magnetic member, assembled to the lens assembly to generate a preset magnetic field around the lens assembly; characterized in that along with a movement of the lens assembly, the spatial magnetic field sensing member is configured to sense changes of the preset magnetic field in a length direction of the lens assembly by a first sensing unit, a width direction of the lens assembly by a second sensing unit and a thickness direction of the lens assembly by a third sensing unit when the lens assembly is at different positions between the initial position and the pop-up position, as well as at the initial position and the pop-up position. a control body, comprising a circuit board, and a spatial magnetic field sensing member disposed on the circuit board; a lens assembly, configured to be controlled to move between an initial position and a pop-up position, so as to generate relative displacement between the lens assembly and the spatial magnetic field sensing member; and at least one magnetic member, assembled to the lens assembly to generate a preset magnetic field around the lens assembly; characterized in that along with a movement of the lens assembly, the spatial magnetic field sensing member is configured to sense changes of the preset magnetic field in a length direction of the lens assembly by a first sensing unit, a width direction of the lens assembly by a second sensing unit and a thickness direction of the lens assembly by a third sensing unit when the lens assembly is at different positions between the initial position and the pop-up position, as well as at the initial position and the pop-up position.
A cutter hub pin drive mechanism for a pelletizer including a cutter hub (350, 445, 540) having a plurality of blades (335, 435, 530) and a cutter hub holder (315, 415, 515) coupled to said cutter hub, a pelletizer shaft (300, 400, 500) powered by a motor (390, 490, 590) and engaged with said cutter hub holder for transferring torque from rotation of said pelletizer shaft to said cutter hub holder and cutter hub with said blades, characterized in that, said cutter hub holder (315, 415, 515) has a plurality of longitudinally extending grooves (317, 417, 517) in an inner surface (319, 419, 519) thereof and a plurality of holes (321, 421, 521) formed in the bottom thereof, an outer surface (341, 441, 541) of the pelletizer shaft (300, 400, 500) has a plurality of longitudinally extending grooves (327, 427, 527) therein, said cutter hub holder grooves and said pelletizer shaft grooves being in alignment to form longitudinally extending drive pin channels (339, 439, 539), a plurality of elongated drive pins (345, 440, 535) being captured within said drive pin channels with forward ends (323, 423, 523) of said drive pins extending beyond a forward end (329, 429, 529) of said pelletizer shaft and being inserted in the holes in the bottom of said cutter hub holder, said drive pins (345, 440, 535) transferring torque from rotation of said pelletizer shaft (300, 400, 500) to said cutter hub holder (315, 415, 515) and cutter hub (350, 445, 540) with said blades (335, 435, 530).
A multilayer film, especially a thermoplastic multilayer film, particularly to be used for food packaging, wherein the multilayer film comprises at least three layers and/or layer composites (2, 3, 4; 2a, 2b, 2c; 3a, 3b, 3c), especially at least three polymeric layers and/or layer composites: an inner layer composite, especially an inner food contacting layer composite, wherein the inner layer composite comprises a plurality of single inner layers (2a, 2b, 2c) attached and/or adhered to one another, especially coextruded to one another, wherein the single inner layers (2a, 2b, 2c) are each composed of at least one foamed polymer comprising at least one polyolefin and wherein the single inner layers (2a, 2b, 2c) each comprise a multitude of voids, especially open cells or pores, capable of reversibly retaining and/or absorbing at least one food additive; an outer layer composite, wherein the outer layer composite comprises a plurality of single outer layers (3a, 3b, 3c) attached and/or adhered to one another, especially coextruded to one another, wherein the single outer layers (3a, 3b, 3c) each comprise at least one polyamide; an adhesive layer (tie layer) disposed between the inner layer composite and the outer layer composite, especially adhered to and/or coextruded with the inner layer composite and the outer layer composite. an inner layer composite, especially an inner food contacting layer composite, wherein the inner layer composite comprises a plurality of single inner layers (2a, 2b, 2c) attached and/or adhered to one another, especially coextruded to one another, wherein the single inner layers (2a, 2b, 2c) are each composed of at least one foamed polymer comprising at least one polyolefin and wherein the single inner layers (2a, 2b, 2c) each comprise a multitude of voids, especially open cells or pores, capable of reversibly retaining and/or absorbing at least one food additive; an outer layer composite, wherein the outer layer composite comprises a plurality of single outer layers (3a, 3b, 3c) attached and/or adhered to one another, especially coextruded to one another, wherein the single outer layers (3a, 3b, 3c) each comprise at least one polyamide; an adhesive layer (tie layer) disposed between the inner layer composite and the outer layer composite, especially adhered to and/or coextruded with the inner layer composite and the outer layer composite.
A method comprising: a) mixing an alkaline solution comprising an alkali metal hydroxide with cellulose and an alkyl halogenide at a temperature of at least 10 °C to form a first reaction mixture comprising alkali cellulose, water and the alkyl halogenide; b) adjusting the temperature of the first reaction mixture to from 50 °C to 110 °C resulting in a reaction of a portion of the alkyl halogenide with the alkali cellulose forming a second reaction mixture comprising alkyl cellulose ether and unreacted alkyl halogenide, wherein the second reaction mixture is at a temperature in a range of from 50 °C to 110 °C; c) adding an alkylene oxide to the second reaction mixture from step b) to form a third reaction mixture; d) adjusting a temperature of the third reaction mixture to be in a range of from 80 °C to 110 °C and reacting at least a portion of the alkyl cellulose ether with: i) at least a portion of the alkylene oxide, and ii) at least a portion of the unreacted alkyl halogenide, thereby forming a fourth reaction mixture comprising - an alkyl hydroxyalkyl cellulose ether having a methyl D.S. value of from 1.40 to 2.10, and - a hydroxyethyl M.S. value of from 0.05 to 0.4; and e) recovering the alkyl hydroxyalkyl cellulose ether from the fourth reaction mixture. a) mixing an alkaline solution comprising an alkali metal hydroxide with cellulose and an alkyl halogenide at a temperature of at least 10 °C to form a first reaction mixture comprising alkali cellulose, water and the alkyl halogenide; b) adjusting the temperature of the first reaction mixture to from 50 °C to 110 °C resulting in a reaction of a portion of the alkyl halogenide with the alkali cellulose forming a second reaction mixture comprising alkyl cellulose ether and unreacted alkyl halogenide, wherein the second reaction mixture is at a temperature in a range of from 50 °C to 110 °C; c) adding an alkylene oxide to the second reaction mixture from step b) to form a third reaction mixture; d) adjusting a temperature of the third reaction mixture to be in a range of from 80 °C to 110 °C and reacting at least a portion of the alkyl cellulose ether with: i) at least a portion of the alkylene oxide, and ii) at least a portion of the unreacted alkyl halogenide, thereby forming a fourth reaction mixture comprising - an alkyl hydroxyalkyl cellulose ether having a methyl D.S. value of from 1.40 to 2.10, and - a hydroxyethyl M.S. value of from 0.05 to 0.4; and i) at least a portion of the alkylene oxide, and ii) at least a portion of the unreacted alkyl halogenide, - an alkyl hydroxyalkyl cellulose ether having a methyl D.S. value of from 1.40 to 2.10, and - a hydroxyethyl M.S. value of from 0.05 to 0.4; and e) recovering the alkyl hydroxyalkyl cellulose ether from the fourth reaction mixture.
An implement coupling arrangement, comprising a first part arranged to be coupled to a vehicle and a second part arranged to be selectively mounted on the first part, in which the first part comprises a support arm configured to support the second part, a mounting for moveably mounting the support arm relative to the vehicle, and a biasing member arranged so as to bias the support arm upwards relative to the vehicle, in which the second part comprises an implement and a mounting assembly, the mounting assembly and the support arm being interengageable so as to mount the second part on the first part; and in which the arrangement further comprises a locking mechanism, which has a locked state which inhibits movement of the support arm upwards relative to the vehicle beyond a point, and an unlocked state which allows upward movement of the support arm relative to the vehicle beyond the point; in which disengagement of the mounting assembly from the support arm causes the locking mechanism to enter the locked state.
A laser cutting tool with protective enclosure assembly for manipulating a workpiece on a movable platen, said laser cutting tool with protective enclosure assembly comprising: a middle protection shield; a bottom protection assembly; a laser torch head; characterised by: a frame; a top protection assembly; and in that said top protection assembly, said middle protection shield, and said bottom protection assembly are removably mounted to said frame;wherein said top protection assembly, said middle protection shield, and said bottom protection assembly form a cavity enclosing completely only said laser torch head; said top protection assembly comprises a top cover having a top cover opening and a top brush assembly, wherein said top brush assembly covers said top cover opening, so as to prevent leaking of any laser light from said cavity. a middle protection shield; a bottom protection assembly; a laser torch head; characterised by: a frame; a top protection assembly; and in that said top protection assembly, said middle protection shield, and said bottom protection assembly are removably mounted to said frame;wherein said top protection assembly, said middle protection shield, and said bottom protection assembly form a cavity enclosing completely only said laser torch head; said top protection assembly comprises a top cover having a top cover opening and a top brush assembly, wherein said top brush assembly covers said top cover opening, so as to prevent leaking of any laser light from said cavity. a frame; a top protection assembly; and in that said top protection assembly, said middle protection shield, and said bottom protection assembly are removably mounted to said frame;wherein said top protection assembly, said middle protection shield, and said bottom protection assembly form a cavity enclosing completely only said laser torch head; said top protection assembly comprises a top cover having a top cover opening and a top brush assembly, wherein said top brush assembly covers said top cover opening, so as to prevent leaking of any laser light from said cavity.
Support and mounting profile for fixing panels, wall panels, frame-mounted mirrors or similar items in a shop fitting system, wherein horizontal support and mounting profiles are used to accommodate the appropriate panels, characterised in that the horizontal profiles are equipped with a locking lip securing the upper edge of the panel and in that the profile area accommodating the lower edge of the panel has a support surface and a locking groove situated behind the panel in the operating position for fixing clips provided on the back of the panel.