mhurhangee/ep-ind-claims huggingface dataset:
A method for the production of micellar casein comprising the steps of: a. Filtering a starting product comprising pasteurized skim milk by microfiltration, in which the pasteurized skim milk has been heated to a temperature of 73°C for at least 15 seconds or 72°C for at least 16 seconds, and wherein the starting product has a pH of 6.5 to 6.8, wherein the temperature of the system is maintained within the range of from 5° to 15°C, and wherein the pH is maintained at the same pH as the starting product; and b. Separating the starting product into a permeate fraction comprising whey protein and a retentate fraction comprising micellar casein in the absence of an acidification step, wherein the retentate comprises a higher solids mass percentage of micellar casein and is depleted in whey protein as compared to the original skim milk; and wherein the retentate is concentrated to a concentration factor of 5 to 6 fold compared to the starting product. a. Filtering a starting product comprising pasteurized skim milk by microfiltration, in which the pasteurized skim milk has been heated to a temperature of 73°C for at least 15 seconds or 72°C for at least 16 seconds, and wherein the starting product has a pH of 6.5 to 6.8, wherein the temperature of the system is maintained within the range of from 5° to 15°C, and wherein the pH is maintained at the same pH as the starting product; and b. Separating the starting product into a permeate fraction comprising whey protein and a retentate fraction comprising micellar casein in the absence of an acidification step, wherein the retentate comprises a higher solids mass percentage of micellar casein and is depleted in whey protein as compared to the original skim milk;
A pneumatic tire comprising: a narrow groove formed on a tread surface and extending in a direction inclined with respect to a tire circumferential direction, a width of the narrow groove being smaller than a depth of the narrow groove, at least one end of the narrow groove is a terminal end terminating in a land portion; and an air inflow part opening to the tread surface and formed on at least one of groove walls of the narrow groove that face each other in the tire circumferential direction, wherein the air inflow part is disposed at the terminal end of the narrow groove, in a development plan view of the tread surface, ∠XOY is an acute angle, where a point O is an intersection between a widthwise center line of the air inflow part and a groove widthwise center line of the narrow groove, a point X is a terminal endpoint of the air inflow part along the widthwise center line of the air inflow part, and a point Y is a lengthwise center point of the narrow groove along the groove widthwise center line of the narrow groove, the air inflow part has a deepest portion on a side opening to the groove wall on which the air inflow part is formed, a depth of the air inflow part gradually increases towards the side opening to the groove wall on which the air inflow part is formed, and ∠XOY is 60° or less. a narrow groove formed on a tread surface and extending in a direction inclined with respect to a tire circumferential direction, a width of the narrow groove being smaller than a depth of the narrow groove, at least one end of the narrow groove is a terminal end terminating in a land portion; and an air inflow part opening to the tread surface and formed on at least one of groove walls of the narrow groove that face each other in the tire circumferential direction, wherein the air inflow part is disposed at the terminal end of the narrow groove, in a development plan view of the tread surface, ∠XOY is an acute angle, where a point O is an intersection between a widthwise center line of the air inflow part and a groove widthwise center line of the narrow groove, a point X is a terminal endpoint of the air inflow part along the widthwise center line of the air inflow part, and a point Y is a lengthwise center point of the narrow groove along the groove widthwise center line of the narrow groove, the air inflow part has a deepest portion on a side opening to the groove wall on which the air inflow part is formed, a depth of the air inflow part gradually increases towards the side opening to the groove wall on which the air inflow part is formed, and ∠XOY is 60° or less.
A spindle device comprising: a rotating shaft which has a plurality of turbine blades installed in a circumferential direction and is configured to mount a mounting object on a tip; a housing which accommodates the rotating shaft; a radial bearing which is attached to the housing and floatingly supports the rotating shaft in a non-contact manner with respect to the housing by supplying gas; a thrust bearing which is attached to the housing and supports the rotating shaft in a thrust direction with respect to the housing by supplying gas; a case which is arranged to surround an outer peripheral surface of the housing; and a plurality of O-rings (61, 62, 63) which are arranged between the housing and the case and supports the housing with respect to the case, wherein: the spindle device rotationally drives the rotating shaft by ejecting gas to the plurality of turbine blades; and characterized in that a distance from a rear end surface of the thrust bearing to a center of gravity of the rotating shaft is smaller than a diameter of an area center of the thrust bearing; and at least one O-ring is arranged between a center of the radial bearing and the center of gravity of the rotating shaft in an axial direction of the rotating shaft. a rotating shaft which has a plurality of turbine blades installed in a circumferential direction and is configured to mount a mounting object on a tip; a housing which accommodates the rotating shaft; a radial bearing which is attached to the housing and floatingly supports the rotating shaft in a non-contact manner with respect to the housing by supplying gas; a thrust bearing which is attached to the housing and supports the rotating shaft in a thrust direction with respect to the housing by supplying gas; a case which is arranged to surround an outer peripheral surface of the housing; and a plurality of O-rings (61, 62, 63) which are arranged between the housing and the case and supports the housing with respect to the case, wherein: the spindle device rotationally drives the rotating shaft by ejecting gas to the plurality of turbine blades; and characterized in that a distance from a rear end surface of the thrust bearing to a center of gravity of the rotating shaft is smaller than a diameter of an area center of the thrust bearing; and at least one O-ring is arranged between a center of the radial bearing and the center of gravity of the rotating shaft in an axial direction of the rotating shaft. the spindle device rotationally drives the rotating shaft by ejecting gas to the plurality of turbine blades; and characterized in that a distance from a rear end surface of the thrust bearing to a center of gravity of the rotating shaft is smaller than a diameter of an area center of the thrust bearing; and at least one O-ring is arranged between a center of the radial bearing and the center of gravity of the rotating shaft in an axial direction of the rotating shaft.
A control device of a luminaire comprising control means for controlling operation of the luminaire, the control means preprogrammed to make the luminaire assume a certain target lighting level as a response to a triggering local input signal, communication means for wireless communication with other devices, the communication means configured to receive indication messages from the other devices, and adaptation means for adjusting the operation of the control means in accordance with received indication messages, characterized in that the adaptation means is configured to determine a relationship strength pertinent to a particular other device, said relationship strength being indicative of regularity at which triggering local input signals have been received at said control means after first receiving an indication message from said particular other device, and reprogram the control means to make the luminaire assume a preparatory lighting level as a response to receiving an indication message from said particular other device, the preparatory lighting level being dependent on the determined relationship strength.
An aircraft lifting pad with at least one top pad and at least one base pad, wherein the pads are each configured as lifting pads and have air-tight chambers, the chambers have an inner space that can be filled with air and is accessible via a valve, and walls of a flexible, rubber-like flat material, at the same time, the base pad is composed of at least one 1st and one 2nd pad group (22, 24), in use, the 1st pad group is located underneath the 2nd pad group, each pad group (22, 24) has at least one single pad, characterized in that each pad group (22, 24) has at least one connecting means that has a first flexible member with tensile strength with a coupling part and a second flexible member with tensile strength with a coupling counter part, and the coupling part and the coupling counterpart can be detachably connected to each other.
A vacuum coating device for coating a steel plate, comprising: a crucible, an induction heater provided on the periphery of the crucible, a flow distribution box connected to the top of said crucible via a steam pipe, wherein said steam pipe is provided with a pressure regulating valve, said flow distribution box is provided inside with a horizontal pressure stabilizing plate, said flow distribution box is connected on the top with a nozzle, a deflector being arranged above said nozzle along the emitting direction of the steam, and wherein a distance Da from nozzle outlet to steel plate is 10-200 mm, a height Db of said deflector is 10-199 mm; a distance Dc from top of said deflector to steel plate is 1~190 mm; an angle Dd between said deflector and said nozzle outlet is 60°~135°; wherein Da, Db, Dc, and Dd satisfy the following relationships: Da = Db + Dc; when Da=100~200mm and Db=(1/5~1/2)Da, Dd=60°~90°; when Da=100-200mm and Db=(1/2~2/3)Da, Dd=70°~110°; when Da=100-200mm and Db=(2/3~4/5)Da, Dd=80°~135°; when Da=10~100mm and Db=(1/5~1/2)Da, Dd=60°~100°; when Da=10~100mm and Db=(1/2~2/3)Da, Dd=70°~120°; when Da=10~100mm and Db=(2/3~4/5)Da, Dd=80°~135°. a crucible, an induction heater provided on the periphery of the crucible, a flow distribution box connected to the top of said crucible via a steam pipe, wherein said steam pipe is provided with a pressure regulating valve, said flow distribution box is provided inside with a horizontal pressure stabilizing plate, said flow distribution box is connected on the top with a nozzle, a deflector being arranged above said nozzle along the emitting direction of the steam, and wherein a distance Da from nozzle outlet to steel plate is 10-200 mm, a height Db of said deflector is 10-199 mm; a distance Dc from top of said deflector to steel plate is 1~190 mm; an angle Dd between said deflector and said nozzle outlet is 60°~135°; wherein Da, Db, Dc, and Dd satisfy the following relationships: Da = Db + Dc; when Da=100~200mm and Db=(1/5~1/2)Da, Dd=60°~90°; when Da=100-200mm and Db=(1/2~2/3)Da, Dd=70°~110°; when Da=100-200mm and Db=(2/3~4/5)Da, Dd=80°~135°; when Da=10~100mm and Db=(1/5~1/2)Da, Dd=60°~100°; when Da=10~100mm and Db=(1/2~2/3)Da, Dd=70°~120°; when Da=10~100mm and Db=(2/3~4/5)Da, Dd=80°~135°.
Cover for a hood of a motor-vehicle, comprising: - a main sheet adapted to cover an external surface of said hood; - an under-hood covering portion adapted to at least partially cover an internal surface of a portion of said hood proximal to a windshield, wherein said portion of under-hood cover and said main sheet are made in a single piece, said portion of under-hood cover having one or more cuts extending along at least two different directions, characterised in that said cuts are made at a distance from a free edge of the under-hood cover portion comprised between 10 mm and 60 mm. - a main sheet adapted to cover an external surface of said hood; - an under-hood covering portion adapted to at least partially cover an internal surface of a portion of said hood proximal to a windshield, wherein said portion of under-hood cover and said main sheet are made in a single piece, said portion of under-hood cover having one or more cuts extending along at least two different directions, characterised in that said cuts are made at a distance from a free edge of the under-hood cover portion comprised between 10 mm and 60 mm.
A die for a printhead, the die comprising: a sense bus; a memory bit; a memory voltage regulator disposed on the die; the die being characterised in that a high-voltage protection switch is disposed on the die in a path of a conductive connection between the memory voltage regulator and the sense bus, and in that the memory voltage regulator is configured to generate a high voltage for programming the memory bit. a sense bus; a memory bit; a memory voltage regulator disposed on the die; the die being characterised in that a high-voltage protection switch is disposed on the die in a path of a conductive connection between the memory voltage regulator and the sense bus, and in that the memory voltage regulator is configured to generate a high voltage for programming the memory bit.
Flow meter for liquid or gaseous media, with a measuring channel through which the medium flows, at least one inlet channel and at least one outlet channel, and also with at least one pair of ultrasonic transducers (2, 3) for emitting or receiving ultrasonic signals, wherein at least one pair of reflectors (4, 5) is arranged in the measuring channel for directing an ultrasonic signal from one ultrasonic transducer (2 or 3) to the other ultrasonic transducer (3 or 2), and at least one flow-directing plate is provided, the flow-directing plate serves as a holding plate for the pair of reflectors (4, 5), extends in the longitudinal direction of the measuring channel and is arranged on a measuring channel ring which is arranged on the measuring channel inner wall.
An apparatus for treating reflux disease in a human or animal mammal patient, characterized in that the apparatus comprises two or more separate movement restriction device segments (561a - 561d) adapted to be placed in contact with each other and be assembled in situ to an implantable assembled movement restriction device (560; 561) of a controlled size, wherein the assembled movement restriction device is adapted to rest with at least a part of its outer surface against the patient's stomach fundus wall such that movement of the cardiac notch of the patient's stomach towards the patient's diaphragm is restricted, when the movement restriction device is implanted in the patient, to thereby prevent the cardia from sliding through the patient's diaphragm opening into the patient's thorax, so as to maintain the supporting pressure against the patient's cardia sphincter muscle exerted from the patient's abdomen.
Liner comprising: - A first side and an opposite second side, - A binder comprising a resin material, - A woven fabric comprising a structural yarn and a first lubricating yarn and being embedded inside the binder, - A pre-preg which is at least partly embedded in the binder, distinct from the woven fabric and which is disposed on the first side of the liner, and - particles of Al 2 O 3, characterized in that the liner further comprises a second lubricating yarn containing particles of Al 2 O 3. - A first side and an opposite second side, - A binder comprising a resin material, - A woven fabric comprising a structural yarn and a first lubricating yarn and being embedded inside the binder, - A pre-preg which is at least partly embedded in the binder, distinct from the woven fabric and which is disposed on the first side of the liner, and - particles of Al 2 O 3,
A system for detecting a position of a dual solenoid device, comprising: a device configured to move between at least a first position and a second position; and a controller having a first monitoring circuit in operable communication with a first channel, wherein the first channel is in operable communication with a first solenoid, and wherein the controller includes a second monitoring circuit in operable communication with a second channel, wherein the second channel is in operable communication with a second solenoid, wherein each solenoid is configured to selectively operate as an active solenoid to move the device when the solenoid and the channel it is in operable communication with are in an active mode, wherein each solenoid is configured to selectively operate as a passive solenoid when the solenoid and the channel it is in operable communication with are in a passive mode to passively move with the active solenoid, each of the monitoring circuits being configured to determine a position of the device when the channel the monitoring circuit is associated with is operating in the passive mode by monitoring an electrical parameter of the passive solenoid associated with that channel. a device configured to move between at least a first position and a second position; and a controller having a first monitoring circuit in operable communication with a first channel, wherein the first channel is in operable communication with a first solenoid, and wherein the controller includes a second monitoring circuit in operable communication with a second channel, wherein the second channel is in operable communication with a second solenoid, wherein each solenoid is configured to selectively operate as an active solenoid to move the device when the solenoid and the channel it is in operable communication with are in an active mode, wherein each solenoid is configured to selectively operate as a passive solenoid when the solenoid and the channel it is in operable communication with are in a passive mode to passively move with the active solenoid, each of the monitoring circuits being configured to determine a position of the device when the channel the monitoring circuit is associated with is operating in the passive mode by monitoring an electrical parameter of the passive solenoid associated with that channel.
Latching mechanism having a housing, of which the front side forms a bearing aperture, and having a cylinder core which is arranged in the bearing aperture, is blocked against rotation by tumblers when a key is plugged in, and can be rotated when an appropriate key is plugged in, and has a switching protuberance, which, in a switching position of the lock cylinder, actuates a switch, wherein the switching protuberance forces the switch in the direction of the axis of rotation of the cylinder core, wherein the cylinder core has a radially projecting peripheral collar at its front end, characterized in that the peripheral collar has the switching protuberance on its rear side, which is directed towards the housing.
A method performed by a Shared Spectrum Manager, SSM, comprising: receiving, by a computing device, a first Radio Frequency, RF, event metric from a first service end point, the first RF event metric comprising a time a first event occurred; receiving a second RF event metric from a second service end point, the second RF event metric comprising a time a second event occurred; determining that the first service end point and the second service end point correlate by determining that the time the first event occurred and the time the second event occurred are within a range of 0 ms to 5 ms of each other; grouping, in response to determining that the time the first event occurred and the time the second event occurred are within a range of 0 ms to 5 ms of each other, the first service end point and the second service end point in a first RF group thereby allowing frequency re-use across similar RF groups; and assigning, in response to grouping the first service end point and the second service end point in the first RF group, different channels to the first service end point and the second service end point, wherein the first service end point operates using a first standard and the second service end point operates using a second standard, wherein the first service end point comprises a wireless Access Point, AP and the second service end point comprises one of: an eNodeB, eNB, and an gNodeB, gNB. receiving, by a computing device, a first Radio Frequency, RF, event metric from a first service end point, the first RF event metric comprising a time a first event occurred; receiving a second RF event metric from a second service end point, the second RF event metric comprising a time a second event occurred; determining that the first service end point and the second service end point correlate by determining that the time the first event occurred and the time the second event occurred are within a range of 0 ms to 5 ms of each other; grouping, in response to determining that the time the first event occurred and the time the second event occurred are within a range of 0 ms to 5 ms of each other, the first service end point and the second service end point in a first RF group thereby allowing frequency re-use across similar RF groups; and assigning, in response to grouping the first service end point and the second service end point in the first RF group, different channels to the first service end point and the second service end point, wherein the first service end point operates using a first standard and the second service end point operates using a second standard, wherein the first service end point comprises a wireless Access Point, AP and the second service end point comprises one of: an eNodeB, eNB, and an gNodeB, gNB.
Seat structure of a vehicle seat comprising a backrest having two longitudinal struts aligned in parallel with one another, and a load-bearing structural part connecting the upper ends of the longitudinal struts to one another to form a dimensionally stable upper side of the backrest, wherein - the structural part has a cavity in which a belt retractor is arranged, wherein - the load-bearing structural part comprises a profile rail which is open on one side and has two opposite side faces (8, 9) extending from a base face, and - the cavity is formed by the intermediate space between the opposite side faces (8, 9), characterized in that - the profile rail is completed by a cover part to form a closed profile. - the load-bearing structural part comprises a profile rail which is open on one side and has two opposite side faces (8, 9) extending from a base face, and - the cavity is formed by the intermediate space between the opposite side faces (8, 9), characterized in that - the profile rail is completed by a cover part to form a closed profile.
Control device for a cabin of an aircraft or spacecraft, having a first control means which is set up to provide at least one first control signal for controlling at least one camera in the cabin for the purpose of setting a scanning rate of the at least one camera, and a second control means which is set up to provide at least one second control signal for controlling at least one lighting device in the cabin for the purpose of setting pulse width modulation of the at least one lighting device, characterized in that the first control means is set up to provide the first control signal on the basis of the at least one second control signal in such a manner that the scanning rate of the at least one camera and the pulse width modulation of the at least one lighting device are synchronized.