mhurhangee/patent-ind-claim-en huggingface dataset:
A bio-electrode for electro-biocatalysis, prepared according to the process as claimed in claim 3, wherein said bio-electrode comprises: electro-active bacteria layered and immobilized on a modified surface of an electrode with an immobilizing agent and conductive material, wherein the surface modification of the electrode is done using acid, base, heat, microwave, ultrasonic or combination thereof; wherein the electro-active bacteria is selected from the group consisting of Cupriavidus nector Ralstonia eutropha DSMZ 428, Geobacter hydrogenophilus H-2 DSM 13691, Methanobacterium palustre DSMZ 3108, Geobacter metallireducens GS-15 DSMZ 7210, Geobacter lovleyi DSMZ 17278, Geobacter sulfurrenducens DSMZ 12127, Shewanella putrefaciens DSMZ 9471, Shewanella putrefaciens DSMZ 6067, Shewanella putrefaciens DSMZ 1818, Acetobacterium woodii DSM 1030, Morella thermocetica DSM 21394, Clostridium aceticum DSMZ 1496, Clostridium ljungdahlii DSM 13528, Sporomusa sphaeroides DSM 2875, Sporomusa silvacetica DSM 10669, Cupriavidus nectar DSM 529, Sporomosa ovate DSM 2662,; Enterobacter aeronenes MTCC 25016, Serratia sp. MTCC 25017, Citrobacteer intermedius MTCC 25018, Pseudomonas aeruginosa MTCC 25019, Shewanella sp. MTCC 25020, Seudomonas stutzeri MTCC 25027 or combinations thereof; wherein the immobilizing agent is selected from the group consisting of pectin, carboxymethylcellulose, propylene glycol; sodium carboxymethylcellulose, polyethylene glycol, hydroxyethylcellulose, alphacyclodextrin, locust bean gum or combinations thereof; wherein the conducting material is selected from the group consisting of polymer poly(pyrrole)s (PPY), polycarbazoles, polyindoles, polyazepines, polyanilines (PANI) or combinations thereof. wherein the electro-active bacteria is selected from the group consisting of Cupriavidus nector Ralstonia eutropha DSMZ 428, Geobacter hydrogenophilus H-2 DSM 13691, Methanobacterium palustre DSMZ 3108, Geobacter metallireducens GS-15 DSMZ 7210, Geobacter lovleyi DSMZ 17278, Geobacter sulfurrenducens DSMZ 12127, Shewanella putrefaciens DSMZ 9471, Shewanella putrefaciens DSMZ 6067, Shewanella putrefaciens DSMZ 1818, Acetobacterium woodii DSM 1030, Morella thermocetica DSM 21394, Clostridium aceticum DSMZ 1496, Clostridium ljungdahlii DSM 13528, Sporomusa sphaeroides DSM 2875, Sporomusa silvacetica DSM 10669, Cupriavidus nectar DSM 529, Sporomosa ovate DSM 2662,; Enterobacter aeronenes MTCC 25016, Serratia sp. MTCC 25017, Citrobacteer intermedius MTCC 25018, Pseudomonas aeruginosa MTCC 25019, Shewanella sp. MTCC 25020, Seudomonas stutzeri MTCC 25027 or combinations thereof; wherein the immobilizing agent is selected from the group consisting of pectin, carboxymethylcellulose, propylene glycol; sodium carboxymethylcellulose, polyethylene glycol, hydroxyethylcellulose, alphacyclodextrin, locust bean gum or combinations thereof; wherein the conducting material is selected from the group consisting of polymer poly(pyrrole)s (PPY), polycarbazoles, polyindoles, polyazepines, polyanilines (PANI) or combinations thereof.
A robot manipulator including a plurality of arm bodies provided in series and a plurality of joints comprising joint shafts rotatably connecting adjacent two of the arm bodies to each other comprising: a first arm body (C1) that rotates around a first joint shaft axis (J1) that is arranged vertically within a horizontal plane; a second arm body (C2) that rotates around a second joint shaft axis (J2) that is arranged orthogonally to the first joint shaft axis (J1); a third arm body (C3) that rotates around a third joint shaft axis (J3) that is arranged orthogonally to the second joint shaft (J2); a fourth arm body (C4) that rotates around a fourth joint shaft axis (J4) that is arranged orthogonally to the third joint shaft axis (J3); a fifth arm body (C5) that rotates around a fifth joint shaft axis (J5) that is arranged orthogonally to the fourth joint shaft axis (J4); and a sixth arm body (C6) that rotates around a sixth joint shaft axis (J6) that is arranged orthogonally to the fifth joint shaft axis (J5), wherein the sixth arm body (C6) includes a seventh joint shaft with a seventh joint shaft axis (J7) that is arranged orthogonally to the sixth joint shaft axis (J6), characterized in that when the robot manipulator extends vertically with respect to the first vertical shaft axis (J1), the third joint shaft axis (J3), fifth joint shaft axis (J5), and a seventh joint shaft axis (J7) are offset from the first vertical shaft axis (J1), and the third joint shaft axis (J3), fifth joint shaft axis (J5), and seventh joint shaft axis (J7) are coaxial in vertical direction.
Passive hearing protector for use in the auditory canal of an ear, in particular for use in an ear mould, comprising a rotationally symmetrical filter housing composed of a plurality of housing parts (22, 24; 122, 124), which filter housing has in its interior at a fixed position a gauze net (28; 128) with a predetermined air permeability being provided behind a sound inlet opening (26; 126) and at a parallel distance (AP) thereto a membrane film (30; 130), behind which filter housing a resonance volume (32; 132) communicating with a sound outlet opening (34; 134) is provided, characterized in that a filter housing part (22; 122) behind the sound inlet opening (26; 126) forms an inner shoulder (36; 136), which merges into a circular-cylindrical wall section (38; 138) directed away from the inner shoulder (36; 136), the wall section (38; 138) forming a mounting ring (40; 140) supported on the inner shoulder (36; 136) in a form-fitting and/or friction-fitting and/or material-fitting manner for fixation of the membrane film (30; 130), the mounting ring (40; 140) itself forming a radially directed mounting inner shoulder (42; 142) as an annular support for the membrane film (30; 130) being fixed by a pressed-in retaining ring (44; 144).
A quantum circuit executed by a quantum computer (200; 300; 400; 600; 701, 711), the circuit comprising : a plurality of qubits (P, Q, R, S; P, Q, R 1 , S 1 ; P+1 , Q-1, R+1, S-1) corresponding to spin orbitals; a Hamiltonian circuit coupled to qubits selected from the plurality of qubits, wherein a) the Hamiltonian circuit (206, 208; 304, 306, 312, 314; 422, 452; 506, 508; 534, 536; 564, 566) includes a control-Z gate (211; 440, 470; 507, 509; 535, 537) associated with a one-body Hamiltonian coefficient H pq and coupled to one of the qubits p, q of the plurality of qubits and including CNOT gates (209A, 209B; 430, 432, 460, 462) coupling the qubits p, q, or wherein b) the Hamiltonian circuit (630; 704, 706, 708, 710; 714, 716, 718, 720; 722, 724, 726, 728, 730; 734, 736, 738, 740) includes a control-Z gate associated with a two-body Hamiltonian coefficient H pqrs , and coupled to at least one of qubits p, q, r, s of the plurality of qubits and including CNOT gates coupling the qubits p, q, r, s; and a Jordan-Wigner string, wherein, a) for the Hamiltonian circuit associated with the one-body Hamiltonian coefficient, the Jordan-Wigner string (202, 212; 302, 320; 420, 482; 502; 530; 560) lacks CNOT gates coupling the qubits p, q, or b) for the Hamiltonian circuit associated with the two-body Hamiltonian coefficient, the Jordan-Wigner string (602, 622; 702; 712; 722; 732; 1002) lacks CNOT gates coupling the qubits p,q,r,s. a plurality of qubits (P, Q, R, S; P, Q, R 1 , S 1 ; P+1 , Q-1, R+1, S-1) corresponding to spin orbitals; a Hamiltonian circuit coupled to qubits selected from the plurality of qubits, wherein a) the Hamiltonian circuit (206, 208; 304, 306, 312, 314; 422, 452; 506, 508; 534, 536; 564, 566) includes a control-Z gate (211; 440, 470; 507, 509; 535, 537) associated with a one-body Hamiltonian coefficient H pq and coupled to one of the qubits p, q of the plurality of qubits and including CNOT gates (209A, 209B; 430, 432, 460, 462) coupling the qubits p, q, or wherein b) the Hamiltonian circuit (630; 704, 706, 708, 710; 714, 716, 718, 720; 722, 724, 726, 728, 730; 734, 736, 738, 740) includes a control-Z gate associated with a two-body Hamiltonian coefficient H pqrs , and coupled to at least one of qubits p, q, r, s of the plurality of qubits and including CNOT gates coupling the qubits p, q, r, s; and a Jordan-Wigner string, wherein, a) for the Hamiltonian circuit associated with the one-body Hamiltonian coefficient, the Jordan-Wigner string (202, 212; 302, 320; 420, 482; 502; 530; 560) lacks CNOT gates coupling the qubits p, q, or b) for the Hamiltonian circuit associated with the two-body Hamiltonian coefficient, the Jordan-Wigner string (602, 622; 702; 712; 722; 732; 1002) lacks CNOT gates coupling the qubits p,q,r,s.
An EPS motor comprising: a motor housing ; a stator mounted at an inner side of the motor housing and including a stator core , a coil wound on the stator core and a coil terminal coupled to a distal end of the coil ; a rotor rotatably formed at a center of the stator ; a sensing magnet module mounted at an upper side of the rotor for sensing a position of the rotor ; and a magnetic element disposed opposite to the sensing magnet module to sense a magnetic force of the sensing magnet module ; the EPS motor being characterised by a multi-layered PCB formed in a disk shape at an upper side of the sensing magnet module and including a plurality of power layers respectively connected to powers, each power having a different polarity supplied to the coil , and a sensor layer mounted with the magnetic element , and wherein the coil terminal is provided with a pillar shape having a predetermined diameter and length to conductively connect to the distal end of the coil . a motor housing ; a stator mounted at an inner side of the motor housing and including a stator core , a coil wound on the stator core and a coil terminal coupled to a distal end of the coil ; a rotor rotatably formed at a center of the stator ; a sensing magnet module mounted at an upper side of the rotor for sensing a position of the rotor ; and a magnetic element disposed opposite to the sensing magnet module to sense a magnetic force of the sensing magnet module ; the EPS motor being characterised by a multi-layered PCB formed in a disk shape at an upper side of the sensing magnet module and including a plurality of power layers respectively connected to powers, each power having a different polarity supplied to the coil , and a sensor layer mounted with the magnetic element , and wherein the coil terminal is provided with a pillar shape having a predetermined diameter and length to conductively connect to the distal end of the coil .
A pharmaceutical composition for use in preventing or treating cancer, comprising as active ingredients: an oncolytic virus, wherein the oncolytic virus is a vaccinia virus in which thymidine kinase gene is deleted, and hydroxyurea, wherein the oncolytic virus is administered at a dose of 1×10 5 pfu or more pfu, and wherein the hydroxyurea is administered at a dose of 20 mg/kg/day to 90 mg/kg/day. an oncolytic virus, wherein the oncolytic virus is a vaccinia virus in which thymidine kinase gene is deleted, and hydroxyurea, wherein the oncolytic virus is administered at a dose of 1×10 5 pfu or more pfu, and wherein the hydroxyurea is administered at a dose of 20 mg/kg/day to 90 mg/kg/day.
A terminal , comprising a side frame , a front cover , a back cover , a display panel , and an ambient light sensor , wherein the front cover and the back cover respectively cover two opposite sides of the side frame , the display panel is fastened to one side of the front cover facing the back cover , an outer peripheral side of the display panel and an inner peripheral side of the side frame are disposed opposite to each other and form a light-transmitting gap therebetween, the ambient light sensor is located on an inner side of the side frame and is located on one side of the display panel facing the back cover , the light-transmitting gap forms a first projection on the front cover , a light sensing surface of the ambient light sensor forms a second projection on the front cover , the first projection covers the second projection , the front cover is provided with a first ink covering the second projection , and ambient light can enter the light sensing surface after undergoing a plurality of times of optical path changes in the first ink , so that a half-light intensity angle obtained when the ambient light sensor receives the ambient light through the first ink is greater than or equal to 30°.
A limb shielding device , for shielding a user's hand, comprising: a shielding member , configured to shield at least part of a user's limb, including the hand, comprising an opening arranged at a proximal end of the shielding member and dimensioned to allow a user's limb to be inserted into the shielding member ; a closure member capable of being moved into a closed position such that at least part of the limb is constrained within the shielding member ; and a locking arrangement for securing the closure member in the closed position; characterised by a means for restricting the opening relative to the user's limb such that once the limb is inserted and the opening is restricted relative to the user's limb, the limb cannot be retracted through the opening; wherein the closure member is capable of being moved by the user's hand within the shielding member into the closed position. a shielding member , configured to shield at least part of a user's limb, including the hand, comprising an opening arranged at a proximal end of the shielding member and dimensioned to allow a user's limb to be inserted into the shielding member ; a closure member capable of being moved into a closed position such that at least part of the limb is constrained within the shielding member ; and a locking arrangement for securing the closure member in the closed position; characterised by a means for restricting the opening relative to the user's limb such that once the limb is inserted and the opening is restricted relative to the user's limb, the limb cannot be retracted through the opening; wherein the closure member is capable of being moved by the user's hand within the shielding member into the closed position.
A printing system comprising: a printhead configured to deliver a print agent on a print medium ; a print platen surface configured to support a print medium advancing in a print medium advance direction ; a hold down system configured to hold down the print medium on the print platen surface ; a safety assembly associated with the printhead , wherein the printhead comprises a printhead lower portion to face the print medium; wherein the safety assembly comprises a rolling element upstream of the printhead in the print medium advance direction configured to prevent the print medium from contacting the printhead ; and wherein the rolling element is above the print platen surface to maintain a distance between a leading edge of the print medium and the printhead lower portion greater than a predetermined safety distance by forcing the leading edge of the print medium to bend downwards when a height of the leading edge is greater than a height between the rolling element and the print platen surface . a printhead configured to deliver a print agent on a print medium ; a print platen surface configured to support a print medium advancing in a print medium advance direction ; a hold down system configured to hold down the print medium on the print platen surface ; a safety assembly associated with the printhead , wherein the printhead comprises a printhead lower portion to face the print medium; wherein the safety assembly comprises a rolling element upstream of the printhead in the print medium advance direction configured to prevent the print medium from contacting the printhead ; and wherein the rolling element is above the print platen surface to maintain a distance between a leading edge of the print medium and the printhead lower portion greater than a predetermined safety distance by forcing the leading edge of the print medium to bend downwards when a height of the leading edge is greater than a height between the rolling element and the print platen surface .
A method of operating a processor, the method comprising: profiling an instruction stream for at least one performance criteria; and based on the performance criteria, selecting one of a plurality of mitigation schemes for a speculation-based attack; the method characterised in that : wherein the selecting is performed by: measuring the at least one performance criteria when a first one of the mitigation schemes is used when operating the processor; measuring the at least one performance criteria when a second, different one of the mitigation schemes is used when operating the processor; and comparing measurements for the at least one performance criteria when a first one of the mitigation schemes is used when operating the processor to measurements for the at least one performance criteria when a second one of the mitigation schemes is used when operating the processor. profiling an instruction stream for at least one performance criteria; and based on the performance criteria, selecting one of a plurality of mitigation schemes for a speculation-based attack; the method characterised in that : wherein the selecting is performed by: measuring the at least one performance criteria when a first one of the mitigation schemes is used when operating the processor; measuring the at least one performance criteria when a second, different one of the mitigation schemes is used when operating the processor; and comparing measurements for the at least one performance criteria when a first one of the mitigation schemes is used when operating the processor to measurements for the at least one performance criteria when a second one of the mitigation schemes is used when operating the processor. measuring the at least one performance criteria when a first one of the mitigation schemes is used when operating the processor; measuring the at least one performance criteria when a second, different one of the mitigation schemes is used when operating the processor; and comparing measurements for the at least one performance criteria when a first one of the mitigation schemes is used when operating the processor to measurements for the at least one performance criteria when a second one of the mitigation schemes is used when operating the processor.
A method of sampling a radio frequency signal comprising the steps of: (i) receiving the radio frequency signal ; (ii) modulating an optical signal with the radio frequency signal and an oscillator signal to generate a modulated signal; (iii) applying a filter to the modulated signal to select an intermediate frequency signal, the filter having a pass band and a roll-off that in combination define an intermediate frequency band having a first bandwidth; and (iv) sampling the intermediate frequency signal at a sampling frequency using a number of optically interleaved analogue-to-digital converters ; the oscillator signal and the sampling frequency in combination being arranged such that the intermediate frequency band is defined between consecutive multiples of half of the sampling frequency, wherein the step of optically interleaving a number of analogue to digital converters comprises: (i) modulating an optical signal with the intermediate frequency signal to generate an optically-carried intermediate frequency signal; (ii) passing the optically-carried intermediate frequency signal through an optical commutator switch , thereby generating a number of interleaved pulses; (iii) detecting the interleaved pulses at a number of photodetectors , each of the photodetectors being associated with one of the analogue to digital converters . (i) receiving the radio frequency signal ; (ii) modulating an optical signal with the radio frequency signal and an oscillator signal to generate a modulated signal; (iii) applying a filter to the modulated signal to select an intermediate frequency signal, the filter having a pass band and a roll-off that in combination define an intermediate frequency band having a first bandwidth; and (iv) sampling the intermediate frequency signal at a sampling frequency using a number of optically interleaved analogue-to-digital converters ; (i) modulating an optical signal with the intermediate frequency signal to generate an optically-carried intermediate frequency signal; (ii) passing the optically-carried intermediate frequency signal through an optical commutator switch , thereby generating a number of interleaved pulses; (iii) detecting the interleaved pulses at a number of photodetectors , each of the photodetectors being associated with one of the analogue to digital converters .
A struvite crystallization system for recovering phosphate in wastewater, comprising three main elements: a crystallizer comprises two cylindrical bodies which have different diameters, the smaller cylindrical body is located at the bottom of the crystallizer and the larger cylindrical body is located at the top of the crystallizer and are coupled in series, a weir located at the top of the crystallizer and a feed pump ; a settler with a perimeter weir at the top of the settler and a distribution system located in the center of the settler and a recirculation pump located between the settler and the crystallizer ; and a magnesium hydroxide adding unit ; characterized by - the crystallizer further comprises a purge valve situated in the bottom of the crystallizer for purging granules and an endless screw located downstream of the purge valve ; - the feed pump feeds the wastewater through an inlet in the lower cylindrical body of the crystallizer flowing upwardly, wherein such wastewater before entering the lower cylindrical body is mixed with the recycle stream from the settler ; - the distribution system is formed by two concentric cylinders and a hopper having a conical shape and a slope of between 30° and 60° connected to the inner concentric cylinder , and the hopper is provided with a hole on its bottom which has a diameter between 20 and 50 mm; and - the weir is connected to the inner concentric cylinder of the distribution system such that treated wastewater and small struvite crystals and fines can leave the crystallizer via the weir and enter by gravity the settler . a crystallizer comprises two cylindrical bodies which have different diameters, the smaller cylindrical body is located at the bottom of the crystallizer and the larger cylindrical body is located at the top of the crystallizer and are coupled in series, a weir located at the top of the crystallizer and a feed pump ; a settler with a perimeter weir at the top of the settler and a distribution system located in the center of the settler and a recirculation pump located between the settler and the crystallizer ; and a magnesium hydroxide adding unit ; - the crystallizer further comprises a purge valve situated in the bottom of the crystallizer for purging granules and an endless screw located downstream of the purge valve ; - the feed pump feeds the wastewater through an inlet in the lower cylindrical body of the crystallizer flowing upwardly, wherein such wastewater before entering the lower cylindrical body is mixed with the recycle stream from the settler ; - the distribution system is formed by two concentric cylinders and a hopper having a conical shape and a slope of between 30° and 60° connected to the inner concentric cylinder , and the hopper is provided with a hole on its bottom which has a diameter between 20 and 50 mm; and - the weir is connected to the inner concentric cylinder of the distribution system such that treated wastewater and small struvite crystals and fines can leave the crystallizer via the weir and enter by gravity the settler .