mhurhangee/ep-ind-claims huggingface dataset:
A method of tuning a tunable reference circuit, the method comprising: selecting a path of a first reference pair of a plurality of reference pairs (102, 104,250,252, 254) electrically coupled in parallel, each of the reference pairs including a first path (106, 114, 260, 270, 274) including a first magnetic tunnel junction element (110, 118, 218, 234, 238) and a second path (108, 116, 262, 272, 276) including a second MTJ element (112, 120,220,236, 240; and applying current to the path to set an MTJ resistance of an MTJ element in the path of the first reference pair independently of another resistance of another MTJ element in another path of the first reference pair, wherein a reference resistance of the tunable reference circuit is based on a resistance of each reference pair of the plurality of reference pairs (102, 104, 250, 252, 254), wherein the plurality of reference pairs (102, 104, 250, 252, 254) includes a first number of MTJ elements that are in a first state and a second number of MTJ elements that are in a second state, and wherein the first number and the second number are different. selecting a path of a first reference pair of a plurality of reference pairs (102, 104,250,252, 254) electrically coupled in parallel, each of the reference pairs including a first path (106, 114, 260, 270, 274) including a first magnetic tunnel junction element (110, 118, 218, 234, 238) and a second path (108, 116, 262, 272, 276) including a second MTJ element (112, 120,220,236, 240; and applying current to the path to set an MTJ resistance of an MTJ element in the path of the first reference pair independently of another resistance of another MTJ element in another path of the first reference pair, wherein a reference resistance of the tunable reference circuit is based on a resistance of each reference pair of the plurality of reference pairs (102, 104, 250, 252, 254), wherein the plurality of reference pairs (102, 104, 250, 252, 254) includes a first number of MTJ elements that are in a first state and a second number of MTJ elements that are in a second state, and wherein the first number and the second number are different.
A system comprising: a first implantable medical device configured to sense first and second electrical cardiac signals of a heart of a patient; a second IMD configured to deliver electrical stimulation to a patient, wherein the first IMD is configured to sense the first electrical cardiac signal while the second IMD is not delivering electrical stimulation to a tissue site within the patient, and is configured to sense the second electrical cardiac signal while the second IMD delivers electrical stimulation to a tissue site within the patient, wherein the first and second IMDs are implanted within the patient; and means for determining a first characteristic of the first electrical cardiac signal; means for determining a second characteristic of the second electrical cardiac signal; means for determining an electrical noise status based on the first and second characteristics; and means for generating a notification based on the electrical noise status. a first implantable medical device configured to sense first and second electrical cardiac signals of a heart of a patient; a second IMD configured to deliver electrical stimulation to a patient, wherein the first IMD is configured to sense the first electrical cardiac signal while the second IMD is not delivering electrical stimulation to a tissue site within the patient, and is configured to sense the second electrical cardiac signal while the second IMD delivers electrical stimulation to a tissue site within the patient, wherein the first and second IMDs are implanted within the patient; and means for determining a first characteristic of the first electrical cardiac signal; means for determining a second characteristic of the second electrical cardiac signal; means for determining an electrical noise status based on the first and second characteristics; and means for generating a notification based on the electrical noise status.
An optical line terminal, OLT, characterized by comprising: an optical module, having a built-in wavelength division multiplexer, wherein the optical module is configured to receive an uplink optical signal; and when a wavelength of a lightwave bearing the uplink optical signal is a first wavelength, send the uplink optical signal to a first Media Access Control, MAC module, or when a wavelength of a lightwave bearing the uplink optical signal is a second wavelength, send the uplink optical signal to a second MAC module, wherein the uplink optical signal carries optical network unit, ONU authentication information; the first MAC module, configured to: when the wavelength of the lightwave of the uplink optical signal is the first wavelength, receive the uplink optical signal, extract the ONU authentication information, and transmit the ONU authentication information to a processor; the second MAC module, configured to: when the wavelength of the lightwave of the uplink optical signal is the second wavelength, receive the uplink optical signal, extract the ONU authentication information, and transmit the ONU authentication information to the processor; and the processor, configured to determine that the ONU authentication information is consistent with ONU authentication information preconfigured by the OLT, and an ONU is registered successfully. an optical module, having a built-in wavelength division multiplexer, wherein the optical module is configured to receive an uplink optical signal; and when a wavelength of a lightwave bearing the uplink optical signal is a first wavelength, send the uplink optical signal to a first Media Access Control, MAC module, or when a wavelength of a lightwave bearing the uplink optical signal is a second wavelength, send the uplink optical signal to a second MAC module, wherein the uplink optical signal carries optical network unit, ONU authentication information; the first MAC module, configured to: when the wavelength of the lightwave of the uplink optical signal is the first wavelength, receive the uplink optical signal, extract the ONU authentication information, and transmit the ONU authentication information to a processor; the second MAC module, configured to: when the wavelength of the lightwave of the uplink optical signal is the second wavelength, receive the uplink optical signal, extract the ONU authentication information, and transmit the ONU authentication information to the processor; and the processor, configured to determine that the ONU authentication information is consistent with ONU authentication information preconfigured by the OLT, and an ONU is registered successfully.
An apparatus for inducing weight loss in a patient, the apparatus comprising: a pouch (12; 44; 54; 63; 78; 90; 108; 120; 125; 130; 150; 162; 168; 182; 186; 200; 212) having a proximal opening (14; 50; 80) and a distal opening (16; 52; 60), the pouch proportioned such that when the proximal opening (14; 50; 80) is positioned at the gastroesophageal junction region of a patient, the distal opening (16; 52; 60) opens into the stomach such that food from the esophagus passes directly into the proximal opening (14; 50; 80), passes through the pouch (12; 44; 54; 63; 78; 90; 108; 120; 125; 130; 150; 162; 168; 182; 186; 200; 212) and then into the stomach; and a cage positionable within the proximal region of the stomach, the pouch (12; 44; 54; 63; 78; 90; 108; 120; 125; 130; 150; 162; 168; 182; 186; 200; 212) attachable to a proximal portion of the cage. a pouch (12; 44; 54; 63; 78; 90; 108; 120; 125; 130; 150; 162; 168; 182; 186; 200; 212) having a proximal opening (14; 50; 80) and a distal opening (16; 52; 60), the pouch proportioned such that when the proximal opening (14; 50; 80) is positioned at the gastroesophageal junction region of a patient, the distal opening (16; 52; 60) opens into the stomach such that food from the esophagus passes directly into the proximal opening (14; 50; 80), passes through the pouch (12; 44; 54; 63; 78; 90; 108; 120; 125; 130; 150; 162; 168; 182; 186; 200; 212) and then into the stomach; and a cage positionable within the proximal region of the stomach, the pouch (12; 44; 54; 63; 78; 90; 108; 120; 125; 130; 150; 162; 168; 182; 186; 200; 212) attachable to a proximal portion of the cage.
A mobile device comprising: - a system interface via which the device is connectable to aircraft-related systems (20, 30) including one or more onboard systems provided onboard an aircraft and one or more off-board systems providing information associated with the aircraft and connectable to one or more non-aircraft-related systems comprising a public or private wireless network for connecting the device with the internet; and - a control unit operable in a first mode to communicate, via the system interface, with the one or more onboard systems, operable in a second mode to communicate, via the system interface, with the one or more off-board systems and operable in a third mode to communicate, via the system interface, with the one or more non-aircraft-related systems, wherein the third mode is a private mode for the device to connect with the one or more non-aircraft related systems, and wherein the control unit is configured to not allow operation in the first or second mode and to block connection to the aircraft-related systems (20, 30), if the control unit is operating in the third mode. - a system interface via which the device is connectable to aircraft-related systems (20, 30) including one or more onboard systems provided onboard an aircraft and one or more off-board systems providing information associated with the aircraft and connectable to one or more non-aircraft-related systems comprising a public or private wireless network for connecting the device with the internet; and - a control unit operable in a first mode to communicate, via the system interface, with the one or more onboard systems, operable in a second mode to communicate, via the system interface, with the one or more off-board systems and operable in a third mode to communicate, via the system interface, with the one or more non-aircraft-related systems, wherein the third mode is a private mode for the device to connect with the one or more non-aircraft related systems, and wherein the control unit is configured to not allow operation in the first or second mode and to block connection to the aircraft-related systems (20, 30), if the control unit is operating in the third mode.
Method for moving a product made of thermoformable plastics in sheet or slab form by cogged conveying means arranged on a thermoforming apparatus, said cogged conveying means being provided with teeth arranged in a row along a feeding direction between an inlet zone and an outlet zone of said thermoforming apparatus, said method being characterized by comprising the step of moving a first guide means of said thermoforming apparatus, facing a first face of said product, along a first direction, oriented transversely to said feeding direction, between a first position in which said first guide means is near a root of a tooth of said teeth and said product is engaged and locked on said teeth, and a second position in which said first guide means is near a tip of said teeth and supports said first face of said product that is disengaged from said teeth.
A composite product comprising a. a first layer of plastic and b. a support structure (11, 3) and c. a there between arranged layer of fibers, wherein d. the first layer of plastic penetrates the layer of fibers at least at certain locations such that the first layer of plastic is mechanically interconnected with the layer of fibers, and wherein e. the first layer of plastic and/or the support structure are at least partially optically transparent, such that the fibers of the layer of fibers are at least partially visible from the outside. a. a first layer of plastic and b. a support structure (11, 3) and c. a there between arranged layer of fibers, wherein d. the first layer of plastic penetrates the layer of fibers at least at certain locations such that the first layer of plastic is mechanically interconnected with the layer of fibers, and wherein e. the first layer of plastic and/or the support structure are at least partially optically transparent, such that the fibers of the layer of fibers are at least partially visible from the outside.
An isolated monoclonal antibody or antigen-binding fragment thereof, which binds an epitope of staphylocoagulase peptide that is within SEQ ID. No: 2 and which comprises the following CDRs: CDRL1: QNVDIY (SEQ ID No: 10) CDRL2: SAS (SEQ ID No.: 11) CDRL3: QQYNNYPYT (SEQ ID No: 12) CDRH1: GFTFSDAW (SEQ ID NO: 13) CDRH2: IRTKANNHAT (SEQ ID NO: 14) CDRH3: CTNVYYGNNDVKDY (SEQ ID NO: 15). CDRL1: QNVDIY (SEQ ID No: 10) CDRL2: SAS (SEQ ID No.: 11) CDRL3: QQYNNYPYT (SEQ ID No: 12) CDRH1: GFTFSDAW (SEQ ID NO: 13) CDRH2: IRTKANNHAT (SEQ ID NO: 14) CDRH3: CTNVYYGNNDVKDY (SEQ ID NO: 15).
Transformer having a magnetic core, wherein the core has at least one limb having a winding arrangement and a yoke, wherein a compensation winding arrangement is provided in order to compensate a unidirectional flux component (Φ DC) flowing in at least one limb, wherein the compensation winding arrangement is disposed on a section of the upper yoke, and wherein the compensation winding arrangement is formed from at least one open conductor loop (13, 15) which is wound at least partly around the section of the upper yoke, characterised in that the compensation winding arrangement has at least one compensation winding (12', 12", 12"') which is formed from the two mentioned conductor loops (13, 15), wherein each conductor loop (13, 15) has two wire sections (17, 18) extending in the longitudinal direction of the yoke and oriented toward one another, wherein a first corresponding wire pair of said wire sections is interconnected and a second corresponding wire pair of said wire sections is run to terminal contacts (K1, K2) which are provided for a connection to an assigned current control device (120, 120', 120", 120"').
Soundproof self-sealing tyre for vehicle wheels comprising: - a carcass structure; - a tread band in a radially outer position with respect to said carcass structure; - a layer of airtight elastomeric material (liner), applied in a radially inner position with respect to the carcass structure; - a layer of sealing elastomeric composition applied on at least a portion of the radially inner surface of the layer of airtight elastomeric material and extending axially at least at a part of the tread band; - optionally, a self-supporting film, applied on at least a portion of the radially inner surface of the layer of sealing composition; - a noise reducing element applied on at least a portion of the radially inner surface of the layer of sealing elastomeric composition or, if present, of the self-supporting film, wherein said noise reducing element comprises at least one closed-cell foamed polyolefin material, preferably with closed macrocells. - a carcass structure; - a tread band in a radially outer position with respect to said carcass structure; - a layer of airtight elastomeric material (liner), applied in a radially inner position with respect to the carcass structure; - a layer of sealing elastomeric composition applied on at least a portion of the radially inner surface of the layer of airtight elastomeric material and extending axially at least at a part of the tread band; - optionally, a self-supporting film, applied on at least a portion of the radially inner surface of the layer of sealing composition; - a noise reducing element applied on at least a portion of the radially inner surface of the layer of sealing elastomeric composition or, if present, of the self-supporting film,
Use of at least one catalyst, at least one copper-based thermal stabilizer and at least one oligo- or poly-carbodiimide with a matrix comprising at least one polyamide, in order to form a composition having a molten viscosity of 13,000 to 23,000 Pa·s, as determined by oscillatory rheology at 270°C, at 10 rad/s under nitrogen sweeping with 5% deformation and shearing of 10 s -1 between two 25 mm diameter parallel plates and stable under transformation, meaning that the molten viscosity does not change by more than 70% as a function of time, and specifically between 1 minute (time necessary to melt the product) and at least 30 minutes, in particular between 1 minute and 30 minutes, in particular on extrusion.
A built-in type air conditioning device having a unit main body whose inside is partitioned by a partition plate which is provided vertically to a top plate and a bottom plate of the unit main body into an air blower chamber in which an air blower is accommodated and a heat exchange chamber in which a heat exchanger is accommodated, the unit main body has a drain pan that is provided at the bottom plate of the unit main body at the heat exchange chamber side, and a lower end of the lower heat exchange portion is mounted on the drain pan, the heat exchanger contains an upper heat exchange portion and a lower exchange portion that are connected to each other substantially in V-shape in side view at a connection portion, a blow-out port of the air blower is provided so as to confront an apex of the V-shape, the lower heat exchange portion and the upper heat exchange portion are configured to have the same width and accommodated substantially fully over a unit width of the unit main body, and a lower end of the upper heat exchange portion is disposed to run on and be stacked on an air flow-in side surface of the lower heat exchange portion, characterized in that: an upper end portion of the lower heat exchange portion extends from an air flow-out side surface of the upper heat exchange portion to form a step that has a step width, the step width being defined by the upper heat exchange portion being disposed nearer to the air blower side than the upper end portion of the lower heat exchange portion, and the blow-out port of the air blower is disposed to face an obliquely downward direction to the connection portion of the upper heat exchange portion and the lower heat exchange portion, and a heat exchange area of the lower heat exchange portion is set to be larger than a heat exchange area of the upper heat exchange portion. an upper end portion of the lower heat exchange portion extends from an air flow-out side surface of the upper heat exchange portion to form a step that has a step width, the step width being defined by the upper heat exchange portion being disposed nearer to the air blower side than the upper end portion of the lower heat exchange portion, and the blow-out port of the air blower is disposed to face an obliquely downward direction to the connection portion of the upper heat exchange portion and the lower heat exchange portion, and a heat exchange area of the lower heat exchange portion is set to be larger than a heat exchange area of the upper heat exchange portion.
Burner module (2, 56) for a cooker or hob provided with a worktop, the burner module comprising: - a carrier arranged under the worktop of the cooker and provided with a gas inlet and a gas outlet; - a burner operatively connectable to the carrier; - a heat shield (30, 58) arranged during use under and/or around the burner; and - a bush provided with a flange arrangeable in an opening in the worktop, wherein the flange rests on or in the worktop, wherein the bush and the heat shield laterally enclose a burner space under the burner during use. - a carrier arranged under the worktop of the cooker and provided with a gas inlet and a gas outlet; - a burner operatively connectable to the carrier; - a heat shield (30, 58) arranged during use under and/or around the burner; and - a bush provided with a flange arrangeable in an opening in the worktop, wherein the flange rests on or in the worktop,
A method for characterizing wettability of a porous medium, the method comprising: receiving pore size distribution data representing a distribution of pore sizes within the porous medium; receiving NMR echo train data from a bulk aqueous fluid; receiving NMR echo train data from a bulk oil; and performing an inversion on the NMR echo train data using a forward model for pore level distribution of wettability and saturation in mixed wet conditions over a plurality of pore sizes using the pore size distribution data and the NMR echo train data for the bulk aqueous fluid and bulk oil, thereby generating a wettability profile and saturation profile across a pore spectrum for the aqueous and oil fluids over a plurality of pore sizes of the porous medium. receiving pore size distribution data representing a distribution of pore sizes within the porous medium; receiving NMR echo train data from a bulk aqueous fluid; receiving NMR echo train data from a bulk oil; and performing an inversion on the NMR echo train data using a forward model for pore level distribution of wettability and saturation in mixed wet conditions over a plurality of pore sizes using the pore size distribution data and the NMR echo train data for the bulk aqueous fluid and bulk oil, thereby generating a wettability profile and saturation profile across a pore spectrum for the aqueous and oil fluids over a plurality of pore sizes of the porous medium.
Use of a powdered composition or an extrudate formed from said composition in a process for removing mercury from a gas phase, wherein the gas phase containing mercury is placed in contact with said composition, wherein the powdered composition comprises a precipitated copper sulfide made by the process of combining a copper source, sulfide source, and modifier to form the precipitated copper sulfide; wherein the copper source is selected from copper nitrate, copper sulfate, copper phosphate, copper acetate, copper carbonate, copper hydroxide, copper ammonium carbonate, and copper hydroxycarbonate; wherein the sulfide source is selected from salts of hydrosulfide (HS -); and wherein the modifier is selected from alumina, silica, aluminosilicate, clay, and zeolites. wherein the copper source is selected from copper nitrate, copper sulfate, copper phosphate, copper acetate, copper carbonate, copper hydroxide, copper ammonium carbonate, and copper hydroxycarbonate; wherein the sulfide source is selected from salts of hydrosulfide (HS -); and wherein the modifier is selected from alumina, silica, aluminosilicate, clay, and zeolites.
Process for producing feed material, comprising a) fermenting Agaricus Blazei on grain with a moisture content between 10 and 90% till 15-50% mycelium content, b) drying the fermented grain to a moisture content of between 2 and 10 wt% (with respect to the dry material) at a temperature below 50 °C, c) and milling the so obtained fermented and dried material to a particle size with a d50 between 0.01 and 10 mm. wherein the feed material comprises ergosterol in an amount of 100-600 milligram per kg feed material, and 1,3- and 1,6-β-glucans in an amount of between 3 to 100 gram, per kg of the feed material. a) fermenting Agaricus Blazei on grain with a moisture content between 10 and 90% till 15-50% mycelium content, b) drying the fermented grain to a moisture content of between 2 and 10 wt% (with respect to the dry material) at a temperature below 50 °C, c) and milling the so obtained fermented and dried material to a particle size with a d50 between 0.01 and 10 mm.
Method for compensating for the offset of the electrical signal from a sensor, in particular a motor vehicle sensor, for example an acceleration sensor, by determining a compensation value (S Off), the compensation value (S Off) being tracked in the long term during the service life of the sensor, characterized in that the compensation value (S Off) is tracked on the basis of the path travelled by the vehicle.