mhurhangee/ep-ind-claims huggingface dataset:
A giant magnetoresistance element comprising: a fixed magnetic layer in which magnetization is fixed; a free magnetic layer in which magnetization is changed by an external magnetic field; and a spacer layer which is positioned between the fixed magnetic layer and the free magnetic layer, wherein the free magnetic layer is formed by laminating a CoFe alloy and a CoFeB alloy, and characterised in that a film thickness of the CoFe alloy is 2 nm or more and 4 nm or less, and a film thickness of the CoFeB alloy is 5 nm or more and 14 nm or less. a fixed magnetic layer in which magnetization is fixed; a free magnetic layer in which magnetization is changed by an external magnetic field; and a spacer layer which is positioned between the fixed magnetic layer and the free magnetic layer, wherein the free magnetic layer is formed by laminating a CoFe alloy and a CoFeB alloy, and characterised in that a film thickness of the CoFe alloy is 2 nm or more and 4 nm or less, and a film thickness of the CoFeB alloy is 5 nm or more and 14 nm or less.
A destacker apparatus, comprising: a succession of conveyors (10, 11, 12) arranged inclined relative to the horizon, each comprising a mobile surface for receiving and supporting articles (J, K) carried upwards by the conveyors (10, 11, 12); and at least one device for varying the pressure of a fluid; characterised in that the surface of at least one of the conveyors (10, 11, 12) has through holes and wherein the pressure varying device is fluid dynamically connectable to the surface; and in that said pressure varying device is designed to produce an overpressure. a succession of conveyors (10, 11, 12) arranged inclined relative to the horizon, each comprising a mobile surface for receiving and supporting articles (J, K) carried upwards by the conveyors (10, 11, 12); and at least one device for varying the pressure of a fluid; characterised in that the surface of at least one of the conveyors (10, 11, 12) has through holes and wherein the pressure varying device is fluid dynamically connectable to the surface; and in that said pressure varying device is designed to produce an overpressure.
Prosthesis for at least a portion of a bone of a body to which portion in the natural condition a tendon of a muscle is attached, wherein the prosthesis is manufactured of a metal or of an alloy thereof, and preferably is provided with holes for attachment means, such as bone screws, for attaching the prosthesis to the bone, the prosthesis being provided with at least one porous area situated in the surface of the prosthesis that faces outward once the prosthesis has been placed in the body, said porous area being formed by a layer of material provided with pores that are connected to each other, wherein the pores are dimensioned for allowing the growth of bone tissue therein, characterized in that said porous area is local and at the outer surface of the prosthesis surrounded by surfaces of the outer surface of the prosthesis, said surfaces being without pores, in particular smooth surfaces.
A hob for a recreational vehicle or a vessel, comprising at least one gas burner (3, 4), a pan support for supporting a pot or pan above the gas burner (3, 4), and a cover for covering the gas burner (3, 4), the cover being movable between an opened position and a closed position, wherein the cover is configured to raise the pan support when the cover is moved from the closed position to the opened position, and to lower the pan support when the cover is moved from the opened position to the closed position, wherein the pan support comprises at least one cross bar (17, 18) and at least one support bar (12 to 16) that is arranged on top of the cross bar (17, 18), wherein the support bar (12 to 16) is arranged to fit between the gas burner (3, 4) and the cover in the closed position of the cover, wherein the cover is connected to the pan support via an adjustment mechanism, wherein the adjustment mechanism comprises at least one angular member (20 to 23), a connector (24, 25), characterized in that the adjustment mechanism further comprises adjustment mechanism eccentric element (26 to 28) for connecting the cover to the connector (24, 25), wherein the angular member comprises two stays (35, 36), wherein the pan support is connected to one stay and the connector (24, 25) is connected to the other stay, and wherein said other stay of the angular member is pivotably connected to an end of said cross bar (17, 18).
Cosmetic composition comprising colourant and a talc particulate having a d 50laser of at least 9.0 μm, a lamellarity index of at least 1.0, and wherein the talc particulate comprises less than 20 % aluminium, based on the weight of the talc particulate, wherein the "lamellarity index" is defined by formula d 50 ⁢ laser − d 50 ⁢ sedi d 50 ⁢ sedi in which "d 50laser " is the value of the mean particle size (d 50) obtained by a particle size measurement by wet Malvern laser scattering (standard ISO 13320-1) and "d 50sedi " is the value of the median diameter obtained by sedimentation using a sedigraph (standard ISO 13317-3).
A whole-cell bacterial vaccine composition for use in preventing whooping cough caused by Bordetella parapertussis, said composition comprising whole cells of B. parapertussis as immunogen, wherein the antigen is obtained by the steps of (a) and (b) below: (a) culturing B. parapertussis cells at 37°C for one to three days to produce a B. parapertussis culture preparation with a final cell concentration of 10 10 cells/mL; and (b) inactivating the whole B. parapertussis cell by adding a formalin solution comprising formaldehyde at a final formaldehyde concentration of 0.1 to 0.2% to the B. parapertussis culture preparation, wherein an effective single dose of said vaccine composition in humans is 0.02 mL to 0.5 mL when the final cell concentration of said vaccine formulation is adjusted to 10 10 cells/mL. (a) culturing B. parapertussis cells at 37°C for one to three days to produce a B. parapertussis culture preparation with a final cell concentration of 10 10 cells/mL; and (b) inactivating the whole B. parapertussis cell by adding a formalin solution comprising formaldehyde at a final formaldehyde concentration of 0.1 to 0.2% to the B. parapertussis culture preparation,
A device (100, 200, 300, 400, 500, 550, 600) for implanting in a biological tissue and adapted to move in a viscoelastic media, the device comprising: a main-body (110, 210, 310, 410, 510, 560, 610) comprising a first material and having a direction in the viscoelastic media, and being configured to change its direction in the viscoelastic media upon application thereto of a first stimulus field at a first threshold; and one or more memory shaped elements (120, 220, 320, 420, 520, 562, 620) externally attached to the main-body, each of said memory shaped elements having a first configuration and comprising a second material being a stimulus-responsive shape-memory material, said second material comprises an elastomer, and wherein the memory shaped element is configured to adopt a second configuration upon application thereto of a second stimulus field at a second threshold, thereby propelling the main-body through the viscoelastic media. a main-body (110, 210, 310, 410, 510, 560, 610) comprising a first material and having a direction in the viscoelastic media, and being configured to change its direction in the viscoelastic media upon application thereto of a first stimulus field at a first threshold; and one or more memory shaped elements (120, 220, 320, 420, 520, 562, 620) externally attached to the main-body, each of said memory shaped elements having a first configuration and comprising a second material being a stimulus-responsive shape-memory material, said second material comprises an elastomer, and wherein the memory shaped element is configured to adopt a second configuration upon application thereto of a second stimulus field at a second threshold, thereby propelling the main-body through the viscoelastic media.
Process for the control of a compression refrigeration machine with a refrigerant medium, an evaporator, a pressure-increase unit, a condenser and a throttling element with the steps: a) Measurement of the evaporator pressure and the refrigerant medium temperature at the evaporator outlet Calculation of the evaporation temperature from the evaporator pressure and refrigerant-medium-specific data Determination of an actual overheating of the refrigerant medium at the evaporator outlet from the difference of the refrigerant medium temperature and the evaporation temperature Determination of the deviation of the actual overheating from a setpoint overheating and Determination of an initial setting value for the throttling element, dependent on the deviation of the actual overheating from the setpoint overheating, b) Determination of the condenser pressure c) Measurement of the evaporator pressure d) Formation of a comparative model of the refrigerant-medium mass-flow at the evaporator input with the refrigerant-medium mass-flow at the evaporator outlet e) Calculation of a second setting value for the throttling element by means of the model, into which the evaporator pressure and the condenser pressure are integrated as process variables, as well as an offset of the throttling element, a refrigeration-cycle-specific constant and an exponent as refrigeration-cycle-specific variables f) Determination of a third setting value for the throttling element by linking the first setting value with the second setting value and g) Adjustment of the throttling element to the third setting value. a) Measurement of the evaporator pressure and the refrigerant medium temperature at the evaporator outlet Calculation of the evaporation temperature from the evaporator pressure and refrigerant-medium-specific data Determination of an actual overheating of the refrigerant medium at the evaporator outlet from the difference of the refrigerant medium temperature and the evaporation temperature Determination of the deviation of the actual overheating from a setpoint overheating and Determination of an initial setting value for the throttling element, dependent on the deviation of the actual overheating from the setpoint overheating, b) Determination of the condenser pressure c) Measurement of the evaporator pressure d) Formation of a comparative model of the refrigerant-medium mass-flow at the evaporator input with the refrigerant-medium mass-flow at the evaporator outlet e) Calculation of a second setting value for the throttling element by means of the model, into which the evaporator pressure and the condenser pressure are integrated as process variables, as well as an offset of the throttling element, a refrigeration-cycle-specific constant and an exponent as refrigeration-cycle-specific variables f) Determination of a third setting value for the throttling element by linking the first setting value with the second setting value and g) Adjustment of the throttling element to the third setting value.
A syndet bar composition comprising: sulfonated methyl ester of a fatty acid having a chain length of 16 to 18 carbon atoms (C16-C18), wherein the sulfonated methyl ester is present in an amount of 5% to 30% by weight of the composition, wherein the sulfonated methyl ester is a compound containing 60% to 90% of C16 sulfonated methyl ester and 10% to 40% of C18 sulfonated methyl ester by weight of the compound; a co-surfactant selected from the group consisting of alkyl sulfosuccinate, alkyl sulfate, alkyl ether sulfate or the combination thereof; a fatty alcohol, in an amount of 5% to 20% by weight of the composition, selected from the group consisting of cetyl alcohol, stearyl alcohol or cetostearyl alcohol; a saturated fatty acid; a filler; and a humectant/moisturiser. sulfonated methyl ester of a fatty acid having a chain length of 16 to 18 carbon atoms (C16-C18), wherein the sulfonated methyl ester is present in an amount of 5% to 30% by weight of the composition, wherein the sulfonated methyl ester is a compound containing 60% to 90% of C16 sulfonated methyl ester and 10% to 40% of C18 sulfonated methyl ester by weight of the compound; a co-surfactant selected from the group consisting of alkyl sulfosuccinate, alkyl sulfate, alkyl ether sulfate or the combination thereof; a fatty alcohol, in an amount of 5% to 20% by weight of the composition, selected from the group consisting of cetyl alcohol, stearyl alcohol or cetostearyl alcohol; a saturated fatty acid; a filler; and a humectant/moisturiser.
Electrostatic rotary atomizer for applying a coating material to an article, comprising a) a bell cup rotatable about an axis of rotation; b) a drive unit for the bell cup; c) an air bearing comprising a bearing bush as the first part of the bearing and a shaft element as the second part of the bearing; where d) the shaft element is coupled to the drive unit and the bell cup, characterized in that e) the air bearing comprises a bearing bush as the first part of the bearing and a shaft element having at least one bearing section guided within the bearing bush as the second part of the bearing, where the shaft element has a shaft portion composed of a first material and, at least in the bearing section, defines a bearing surface composed of a second material; the second material is a metal oxide, a nitride, a carbide, a boride, a composite material, amorphous carbon DLC, or a mixed form of these materials; the bearing bush, at least on its inner lateral face, is formed from graphite or from bronze or from sintered bronze or from sintered steel. a) a bell cup rotatable about an axis of rotation; b) a drive unit for the bell cup; c) an air bearing comprising a bearing bush as the first part of the bearing and a shaft element as the second part of the bearing; where d) the shaft element is coupled to the drive unit and the bell cup, characterized in that e) the air bearing comprises a bearing bush as the first part of the bearing and a shaft element having at least one bearing section guided within the bearing bush as the second part of the bearing, where the shaft element has a shaft portion composed of a first material and, at least in the bearing section, defines a bearing surface composed of a second material; the second material is a metal oxide, a nitride, a carbide, a boride, a composite material, amorphous carbon DLC, or a mixed form of these materials; the bearing bush, at least on its inner lateral face, is formed from graphite or from bronze or from sintered bronze or from sintered steel. the shaft element has a shaft portion composed of a first material and, at least in the bearing section, defines a bearing surface composed of a second material; the second material is a metal oxide, a nitride, a carbide, a boride, a composite material, amorphous carbon DLC, or a mixed form of these materials; the bearing bush, at least on its inner lateral face, is formed from graphite or from bronze or from sintered bronze or from sintered steel.
A notification appliance circuit comprising: at least one notification appliance, the at least one notification appliance including a charge controller including a single stage current controller, the charge controller being configured to output an adjustable charge current; an energy store configured to receive the charge current, and provide a discharge current; and a notification component configured to receive the discharge current and emit a notification; wherein the single stage current controller includes a current sensor configured to sense an input current of the current controller, a transconductance element configured to output the charge current based on a magnitude of a received transconductance control signal, and a main circuit configured to produce the transconductance control signal based at least in part on a sensed current value received from the current sensor, a charge current control value, and an enable input, wherein the sensed current value and the charge current control value are connected to a summation circuit configured to add the sensed current value and the charge current control value and wherein the enable input is connected to a bias generator and the bias generator is configured to generate a bias voltage based on the enable input to bias the transconductance element, wherein the transconductance element includes a MOSFET which is biased to an operating point to set the MOSFET towards its linear region based on the enable input. at least one notification appliance, the at least one notification appliance including a charge controller including a single stage current controller, the charge controller being configured to output an adjustable charge current; an energy store configured to receive the charge current, and provide a discharge current; and a notification component configured to receive the discharge current and emit a notification; wherein the single stage current controller includes a current sensor configured to sense an input current of the current controller, a transconductance element configured to output the charge current based on a magnitude of a received transconductance control signal, and a main circuit configured to produce the transconductance control signal based at least in part on a sensed current value received from the current sensor, a charge current control value, and an enable input, wherein the sensed current value and the charge current control value are connected to a summation circuit configured to add the sensed current value and the charge current control value and wherein the enable input is connected to a bias generator and the bias generator is configured to generate a bias voltage based on the enable input to bias the transconductance element, wherein the transconductance element includes a MOSFET which is biased to an operating point to set the MOSFET towards its linear region based on the enable input.
A port auto-negotiation method, comprising: configuring, by a first device, a first port of the first device as four subports, wherein each of the four subports comprises a differential transceiver channel; determining, by the first device from the four subports, at least one subport whose differential transceiver channel operates normally, and selecting some or all of the at least one subport as a normal subport; sending, by the first device, capability information of the first port to a second device by using the normal subport, and receiving, by using the normal subport, capability information of a second port of the second device sent by the second device, wherein the capability information comprises a port-supported differential transceiver channel combination mode; and configuring, by the first device, operating statuses of the four subports based on the capability information of the first port and the capability information of the second port, wherein the first device and the second device are high-speed Ethernet devices. configuring, by a first device, a first port of the first device as four subports, wherein each of the four subports comprises a differential transceiver channel; determining, by the first device from the four subports, at least one subport whose differential transceiver channel operates normally, and selecting some or all of the at least one subport as a normal subport; sending, by the first device, capability information of the first port to a second device by using the normal subport, and receiving, by using the normal subport, capability information of a second port of the second device sent by the second device, wherein the capability information comprises a port-supported differential transceiver channel combination mode; and configuring, by the first device, operating statuses of the four subports based on the capability information of the first port and the capability information of the second port, wherein the first device and the second device are high-speed Ethernet devices.
Door hinge in the form of a drill-in hinge for supporting a door wing to a frame or the like in a manner pivotable about a pivot axis, comprising: at least two frame parts and at least two wing parts, each having a bearing section and a lifting-lug section that can be fixed in the frame or in the door wing, and an adjustment device for a relative axial adjustment of the wing parts in the direction of the pivot axis, wherein said adjustment device includes a rotary pin which fixes the pivot axis of the door hinge, and at least two rotary elements provided with a first thread, wherein said at least two bearing sections of the frame parts or those of the wing parts are provided with a second thread, wherein said first thread is in a threaded engagement with at least one of the second threads respectively, and wherein said rotary pin extends into the bearing sections and engages with said rotary elements in a form-fit manner so that the wing parts are displaced in the direction of the pivot axis by rotation of said rotary pin via said threaded engagement. at least two frame parts and at least two wing parts, each having a bearing section and a lifting-lug section that can be fixed in the frame or in the door wing, and an adjustment device for a relative axial adjustment of the wing parts in the direction of the pivot axis, wherein said adjustment device includes a rotary pin which fixes the pivot axis of the door hinge, and at least two rotary elements provided with a first thread,
A belt apparatus, comprising: a strap portion comprising a plurality of magnet patterns; a first sensor portion configured to sense one of the plurality of magnet patterns while the strap portion is being fastened to a buckle portion; a controller configured to obtain a length of a waist circumference of a user that corresponds to the magnet pattern sensed by the first sensor portion, and a clip portion connecting the strap portion with the buckle portion; a second sensor portion configured to measure a tension value exerted on the clip portion while the strap portion is being fastened to the buckle portion, and a third sensor portion configured to sense user motion information of a user wearing the belt apparatus, characterised in that: the controller is configured to correct the tension value using the user motion information sensed at the third sensor portion and to correct the length of the waist circumference using a waist circumference correction value corresponding to the corrected tension value. a strap portion comprising a plurality of magnet patterns; a first sensor portion configured to sense one of the plurality of magnet patterns while the strap portion is being fastened to a buckle portion; a controller configured to obtain a length of a waist circumference of a user that corresponds to the magnet pattern sensed by the first sensor portion, and a clip portion connecting the strap portion with the buckle portion; a second sensor portion configured to measure a tension value exerted on the clip portion while the strap portion is being fastened to the buckle portion, and a third sensor portion configured to sense user motion information of a user wearing the belt apparatus, characterised in that: the controller is configured to correct the tension value using the user motion information sensed at the third sensor portion and to correct the length of the waist circumference using a waist circumference correction value corresponding to the corrected tension value.