mhurhangee/ep-ind-claims huggingface dataset:
Bidirectional auxiliary converter with an input side for supplying an external input voltage, - a first current path to at least one connectable consumer and a second current path parallel to the first current path from and to at least one connectable battery, and - an output converter in the second current path, - wherein in charging mode of the auxiliary converter for charging the at least one battery, the output converter can be operated as a rectifier by means of the external input voltage and in feedback mode of the auxiliary converter for supplying energy to at least individual consumers the output converter can be operated as an inverter by means of the at least one battery, - wherein the first and second current path (14, 18) are each connected to a secondary side of a transmitter, - wherein the output converter is located in the second current path following the transmitter and - wherein in feedback mode an alternating voltage which can reach the first current path and the at least one consumer connected there by means of the transmitter can be generated by means of the output converter, characterised in that - the transmitter comprises a first transformer and a second transformer, - the first and the second transformer (74, 76) are connected in parallel on the primary side and the two transformers (74, 76) form a shared primary circuit, - the first current path connects to the first transformer and - the second current path connects to the second transformer. - a first current path to at least one connectable consumer and a second current path parallel to the first current path from and to at least one connectable battery, and - an output converter in the second current path, - wherein in charging mode of the auxiliary converter for charging the at least one battery, the output converter can be operated as a rectifier by means of the external input voltage and in feedback mode of the auxiliary converter for supplying energy to at least individual consumers the output converter can be operated as an inverter by means of the at least one battery, - wherein the first and second current path (14, 18) are each connected to a secondary side of a transmitter, - wherein the output converter is located in the second current path following the transmitter and - wherein in feedback mode an alternating voltage which can reach the first current path and the at least one consumer connected there by means of the transmitter can be generated by means of the output converter, - the transmitter comprises a first transformer and a second transformer, - the first and the second transformer (74, 76) are connected in parallel on the primary side and the two transformers (74, 76) form a shared primary circuit, - the first current path connects to the first transformer and - the second current path connects to the second transformer.
A solar power system, comprising: a solar energy source configured to output DC power; at least one dual mode photovoltaic DC-DC converter configured to input said DC power and configured to output converted DC power; converter functionality control circuitry configured to control said at least one dual mode photovoltaic DC-DC converter; a converted DC output from said at least one dual mode photovoltaic DC-DC converter; and an inverter configured to input said converted DC output; wherein, in any order, a first mode of the dual mode photovoltaic DC-DC converter is capable of creating an output voltage that is lower than an input voltage and a second mode of the dual mode photovoltaic DC-DC converter is capable of creating the output voltage that is higher than the input voltage; wherein said dual mode photovoltaic converter comprises at least one pair of input semiconductor switches (T1, T2, T21, T22), at least one pair of output semiconductor switches (T3, T4, T23, T24), and at least one of an inductor or a capacitor, one of each pair of semiconductor switches (T1, T3; T21, T23) being a series switch and the other (T2, T4; T22, T24) being a shunt switch, wherein said converter functionality control circuitry is configured to control said switches in variable duty cycles to achieve the desired converter functionality comprising the first mode and the second mode; wherein said converter functionality control circuitry comprises photovoltaic boundary condition converter control circuitry capable of achieving, at least some times during operation of said solar power system, a power producing boundary condition for converter operation including a converter DC output overcurrent limit, a converter DC output overvoltage limit, or both, such that the converted DC power input to the inverter is limited.
A power leveling system comprising a high frequency controller, the power leveling system being configured to: receive a power demand signal indicating a power requirement of a vehicle; determine a high frequency component of the power demand signal; and provide a signal to a primary power system to provide a low frequency power component to a rotor system of the vehicle; the system being characterized by the power leveling system being configured to provide, via a high frequency controller, a signal based on the high frequency component to an auxiliary power system to provide a high frequency power component to the rotor system. receive a power demand signal indicating a power requirement of a vehicle; determine a high frequency component of the power demand signal; and provide a signal to a primary power system to provide a low frequency power component to a rotor system of the vehicle; the system being characterized by the power leveling system being configured to provide, via a high frequency controller, a signal based on the high frequency component to an auxiliary power system to provide a high frequency power component to the rotor system.
A method comprising evaluating, in a cognitive local node of a first communication network, timing when a guard time period takes place on a physical random access channel in an uplink of a communications carrier of a second communication network that at least partially overlays the first communication network; and based on the evaluating, utilizing an interference-free guard time period of a cellular user terminal's transmission in the physical random access channel of the second communication network, for distributing a synchronization signal and a beacon signal locally in the first communication network.
An ink composition, comprising: an aqueous carrier component; a pigment, wherein the pigment has a content ranging from 8 wt.% to 25 wt.% based on a total weight of the ink composition; and a rheology modifier, wherein the rheology modifier has a content ranging from 0.2 wt.% to 0.6 wt.% based on a total weight of the ink composition, and has a solid content of about 30 wt.% and a pH below about 4, and the rheology modifier is effective to provide the ink composition with a pseudo-plastic characteristics, wherein the ink composition has a viscosity at 25°C, and the viscosity is reduced from about 1 Pa-sec to less than about 0.1 Pa-sec upon shearing the ink composition. an aqueous carrier component; a pigment, wherein the pigment has a content ranging from 8 wt.% to 25 wt.% based on a total weight of the ink composition; and a rheology modifier, wherein the rheology modifier has a content ranging from 0.2 wt.% to 0.6 wt.% based on a total weight of the ink composition, and has a solid content of about 30 wt.% and a pH below about 4, and the rheology modifier is effective to provide the ink composition with a pseudo-plastic characteristics, wherein the ink composition has a viscosity at 25°C, and the viscosity is reduced from about 1 Pa-sec to less than about 0.1 Pa-sec upon shearing the ink composition.
A sensor comprising: a transducer comprising a mechanical resonator arranged to exhibit a resonant frequency which is dependent upon one or more properties of a fluid, and a vibration sensing optical cavity arranged to vary in optical path difference in correspondence with vibration of the mechanical resonator; and a resonator driver arranged to drive vibration of the mechanical resonator at or near the resonant frequency, characterised in that the sensor further comprises a detector arranged to detect amplitude of vibration of the mechanical resonator, from optical interference caused by a combination of the vibration sensing optical cavity and the detector in light received at the detector from the transducer, and to detect the resonant frequency of the mechanical resonator from the same optical interference. a transducer comprising a mechanical resonator arranged to exhibit a resonant frequency which is dependent upon one or more properties of a fluid, and a vibration sensing optical cavity arranged to vary in optical path difference in correspondence with vibration of the mechanical resonator; and a resonator driver arranged to drive vibration of the mechanical resonator at or near the resonant frequency, characterised in that the sensor further comprises a detector arranged to detect amplitude of vibration of the mechanical resonator, from optical interference caused by a combination of the vibration sensing optical cavity and the detector in light received at the detector from the transducer, and to detect the resonant frequency of the mechanical resonator from the same optical interference.
A pharmaceutical composition for use in the treatment of an impairment in social interaction related to an_autism spectrum disorder in a subject in need thereof, comprising administering to said subject an amount of said pharmaceutical composition effective for treating said ASD, comprising: orally administering to said subject said pharmaceutical composition according to a first dosing schedule, wherein said pharmaceutical composition comprises a fecal microbe preparation comprising a substantially complete fecal microbiota from a stool sample of a neurotypical human donor; subsequently orally administering to said subject said pharmaceutical composition according to a second dosing schedule; wherein said treatment reduces severity of an impairment in social interaction of said subject; and wherein said first dosing schedule comprises an induction dose and said second dosing schedule comprising a maintenance dose that is lower than said induction dose. orally administering to said subject said pharmaceutical composition according to a first dosing schedule, wherein said pharmaceutical composition comprises a fecal microbe preparation comprising a substantially complete fecal microbiota from a stool sample of a neurotypical human donor; subsequently orally administering to said subject said pharmaceutical composition according to a second dosing schedule; wherein said treatment reduces severity of an impairment in social interaction of said subject; and
Cephalostat for acquiring teleradiographic images comprising an extraoral radiographic apparatus, the said cephalostat comprising a supporting element for a pair of earpieces at the ends of two shafts and a small bar for resting again nasion, said components being manually adjustable to adjust them to the skull of the specific patient under examination, the said components falling at least partially inside the path of an imaging x-ray beam, wherein said cephalostat is free from metallic parts in the said components at least in the parts falling inside the X-ray beams path, with the exception of radio-opaque markers (45, 48), and the said cephalostat is interchangeable with a craniostat fixed in the same seat of apparatus wherein, on the pair of earpieces two radio-opaque markers are fixed, and wherein at the end of the small bar in contact with nasion a radio-opaque marker is fixed.
A cannula for surgical procedures, the cannula comprising: a body member forming a lumen having a plurality of flexible fins extending therefrom, the flexible fins capable of inward convergence to allow insertion of the body member into an incision in the skin of a patient to form a port for a surgical tool, one or more of the flexible fins comprising a penetration for embedding a biasing device, wherein at least one biasing device is embedded within each penetration; the at least one biasing device being capable to cause the fins to flex outwardly; and wherein a distal end of each biasing device protrudes beyond a distal end of the respective flexible fin in which said biasing device is embedded. a body member forming a lumen having a plurality of flexible fins extending therefrom, the flexible fins capable of inward convergence to allow insertion of the body member into an incision in the skin of a patient to form a port for a surgical tool, one or more of the flexible fins comprising a penetration for embedding a biasing device, wherein at least one biasing device is embedded within each penetration; the at least one biasing device being capable to cause the fins to flex outwardly; and wherein a distal end of each biasing device protrudes beyond a distal end of the respective flexible fin in which said biasing device is embedded.
An inflatable structure transformable between a deflated state and an inflated state, the inflatable structure comprising a drop stitch fabric having a first layer and a second layer tethered by drop stitches, wherein at least one layer of the first and second layers (11, 12) comprises a ridge formed by a folded portion of the one layer, secured by a fixation line, characterized in that the ridge is formed by a first drop stitches facing portion of the one layer being secured to and facing a second drop stitches facing portion of the one layer.
An integrated hybrid energy recovery and storage system for recovering and storing energy from multiple energy sources, the system comprising: an accumulator unit that includes a high pressure accumulator and a low pressure accumulator, the accumulator unit having a first side and a second side; at least one piston mounted for reciprocation in the high pressure accumulator, the accumulator unit configured to receive, store, and transfer energy from hydraulic fluid to energy storage media; two or more rotational directional control valves (110, 140), wherein at least one rotational directional control valve is positioned on each side of the accumulator unit, each rotational directional control valve includes multiple ports (A, B, C, D); the high pressure accumulator is connected to a port of the at least one rotational directional control valve on the first side and a port of the at least one rotational directional control valve on the second side, the low pressure accumulator is connected to a port of the same rotational directional control valve on the first side as the high pressure accumulator and a port of the same rotational directional control valve on the second side as the high pressure accumulator; and two or more variable displacement hydraulic rotational units (108, 142), wherein at least one variable displacement hydraulic rotational unit is positioned adjacent each of the rotational directional control valves, each variable displacement hydraulic rotational unit connected to a rotational directional control valve via a port of the rotational directional control valve and a hydraulic pipe. an accumulator unit that includes a high pressure accumulator and a low pressure accumulator, the accumulator unit having a first side and a second side; at least one piston mounted for reciprocation in the high pressure accumulator, the accumulator unit configured to receive, store, and transfer energy from hydraulic fluid to energy storage media; two or more rotational directional control valves (110, 140), wherein at least one rotational directional control valve is positioned on each side of the accumulator unit, each rotational directional control valve includes multiple ports (A, B, C, D); the high pressure accumulator is connected to a port of the at least one rotational directional control valve on the first side and a port of the at least one rotational directional control valve on the second side, the low pressure accumulator is connected to a port of the same rotational directional control valve on the first side as the high pressure accumulator and a port of the same rotational directional control valve on the second side as the high pressure accumulator; and two or more variable displacement hydraulic rotational units (108, 142), wherein at least one variable displacement hydraulic rotational unit is positioned adjacent each of the rotational directional control valves, each variable displacement hydraulic rotational unit connected to a rotational directional control valve via a port of the rotational directional control valve and a hydraulic pipe.
A working vehicle such as a tractor and a civil engineering wheel loader, comprising: a travelling machine body comprising an engine frame having a front bumper and a front axle case, and right and left machine body frames detachably fixed to a rear portion of the engine frame with bolts wherein an engine is provided in the travelling machine body; a travelling unit and a working unit; a hydraulic continuously variable transmission, wherein speed of rotation power from the engine is changed and transmitted to the travelling unit and the working unit; a cockpit in the travelling machine body; and an armrest placed lateral to the cockpit in the travelling machine body, wherein a main transmission lever for changing traveling speed by the traveling unit is arranged on a front end of the arm rest, and an elevating dial for hoisting and lowering the working unit is arranged on a side surface of the arm rest on a side of the armrest not facing the cockpit, characterized in that the elevating dial is fitted to a side surface of the arm rest such that an upper end of the elevating dial is located lower than an upper surface of the arm rest, a side notch for operating a dial is provided in the side surface of the arm rest above an installation region of the elevating dial, an operating projection is provided above the elevating dial, and front and rear step portions of the side notch are brought into abutment against the operating projection, thereby configuring the step portions as a rotation-restricting portion which restricts rotation of the elevating dial. a travelling machine body comprising an engine frame having a front bumper and a front axle case, and right and left machine body frames detachably fixed to a rear portion of the engine frame with bolts wherein an engine is provided in the travelling machine body; a travelling unit and a working unit; a hydraulic continuously variable transmission, wherein speed of rotation power from the engine is changed and transmitted to the travelling unit and the working unit; a cockpit in the travelling machine body; and an armrest placed lateral to the cockpit in the travelling machine body, wherein a main transmission lever for changing traveling speed by the traveling unit is arranged on a front end of the arm rest, and an elevating dial for hoisting and lowering the working unit is arranged on a side surface of the arm rest on a side of the armrest not facing the cockpit, characterized in that the elevating dial is fitted to a side surface of the arm rest such that an upper end of the elevating dial is located lower than an upper surface of the arm rest, a side notch for operating a dial is provided in the side surface of the arm rest above an installation region of the elevating dial, an operating projection is provided above the elevating dial, and front and rear step portions of the side notch are brought into abutment against the operating projection, thereby configuring the step portions as a rotation-restricting portion which restricts rotation of the elevating dial.
A support handle assembly comprising a mounting plate for attaching the assembly to an attachment wall and a handle tube, a connection end of the handle tube being connected to the mounting plate in a force-fitting manner, and comprising a support beam stiffening the handle tube and extending below the handle tube, the support beam stiffening the handle tube against bending when a support load acts thereon, the support beam being connected to the handle tube in a force-fitting manner by means of first and second connection devices (67, 68) spaced apart by the support length of the support beam, an engagement connection being formed between a connection end of the support beam and the handle tube so as to form the second connection device associated with a free handle tube end, the engagement connection being formed in such a manner that the connection end and the handle tube form an acute connection angle, characterized in that the connection end is inserted into the handle tube through an entrance opening in such a manner that an axial support end of the support beam is supported on a support stop formed by an inner tube wall of the handle tube, and the entrance opening has an opening edge which, correspondingly to the circumference of the connection end, extends in an opening plane defined by an opening cross-section of the entrance opening.
A polypeptide comprising a variant Fc domain, wherein said variant Fc domain possesses an amino acid sequence that differs from the amino acid sequence of a wild-type Fc domain by comprising no more than 15 amino acid residue modifications relative to said wild-type Fc domain, said amino acid residue modifications comprising a substitution of a lysine at Kabat residue 435 and a substitution of aspartic acid at Kabat residue 288, wherein: i) said variant Fc domain is a variant human IgG1 Fc domain and said wild-type Fc domain is a human IgG1 Fc domain; ii) said variant Fc domain is a variant human IgG2 Fc domain and said wild-type Fc domain is a human IgG2 Fc domain; iii) said variant Fc domain is a variant human IgG3 Fc domain and said wild-type Fc domain is a human IgG3 Fc domain; or iv) said variant Fc domain is a variant human IgG4 Fc domain and said wild-type Fc domain is a human IgG4 Fc domain; and wherein said variant Fc domain exhibits: enhanced binding affinity of said Fc domain of said polypeptide to human FcRn at least 2-fold relative to the binding affinity exhibited by a comparable molecule to human FcRn if comprising said wild-type Fc domain; or enhanced serum half-life of said polypeptide in humans of at least 1.5 times compared to the serum half-life of such polypeptide in humans if comprising said wild-type Fc domain. i) said variant Fc domain is a variant human IgG1 Fc domain and said wild-type Fc domain is a human IgG1 Fc domain; ii) said variant Fc domain is a variant human IgG2 Fc domain and said wild-type Fc domain is a human IgG2 Fc domain; iii) said variant Fc domain is a variant human IgG3 Fc domain and said wild-type Fc domain is a human IgG3 Fc domain; or iv) said variant Fc domain is a variant human IgG4 Fc domain and said wild-type Fc domain is a human IgG4 Fc domain; enhanced binding affinity of said Fc domain of said polypeptide to human FcRn at least 2-fold relative to the binding affinity exhibited by a comparable molecule to human FcRn if comprising said wild-type Fc domain; or enhanced serum half-life of said polypeptide in humans of at least 1.5 times compared to the serum half-life of such polypeptide in humans if comprising said wild-type Fc domain.