mhurhangee/patent-ind-claim-en huggingface dataset:
A processor-implemented method for testing a device , the method comprising: accessing a test script corresponding to a test case for testing the device , wherein the test script comprises a set of mutually independent primitive executables; packetising one or more of the set of primitive executables based on a protocol adapted to represent a message as a series of data fields, wherein the data fields comprise a SYNC byte field, a start byte field, a payload length field, a session identification field, a message identification field, a sequence identification field, a test case identification field, a core data field, and a checksum field, and wherein the message identification field comprises a more bit field; and transmitting the one or more encoded primitive executables to the device for execution, wherein transmitting the one or more encoded primitive executables comprises: determining an availability of each of one or more resources in the device via the protocol; and transmitting the one or more encoded primitive executables to the device based on the availability. accessing a test script corresponding to a test case for testing the device , wherein the test script comprises a set of mutually independent primitive executables; packetising one or more of the set of primitive executables based on a protocol adapted to represent a message as a series of data fields, wherein the data fields comprise a SYNC byte field, a start byte field, a payload length field, a session identification field, a message identification field, a sequence identification field, a test case identification field, a core data field, and a checksum field, and wherein the message identification field comprises a more bit field; and transmitting the one or more encoded primitive executables to the device for execution, wherein transmitting the one or more encoded primitive executables comprises: determining an availability of each of one or more resources in the device via the protocol; and transmitting the one or more encoded primitive executables to the device based on the availability. determining an availability of each of one or more resources in the device via the protocol; and transmitting the one or more encoded primitive executables to the device based on the availability.
An imaging device for a vehicle, comprising: a casing comprising a casing body and a transparent cover provided to the casing body , the transparent cover being rotatable relative to the casing body ; a camera provided in the casing and configured to obtain image information outside the transparent cover through the transparent cover ; a wiping member provided to the casing and being stationary relative to the camera ; and a drive device connected with the transparent cover and configured to drive the transparent cover to rotate so as to enable the wiping member to wipe an outer surface of the transparent cover , characterized in that the casing body comprises an upper casing and a lower casing that are spaced apart from each other in an up-and-down direction, and the transparent cover is disposed between the upper casing and the lower casing ; the transparent cover has an upper end rotatably fitted with an inner peripheral surface of the upper casing and a lower end rotatably fitted with an inner peripheral surface of the lower casing , and an outer peripheral surface of the upper casing and an outer peripheral surface of the lower casing protrude beyond an outer peripheral surface of the transparent cover . a casing comprising a casing body and a transparent cover provided to the casing body , the transparent cover being rotatable relative to the casing body ; a camera provided in the casing and configured to obtain image information outside the transparent cover through the transparent cover ; a wiping member provided to the casing and being stationary relative to the camera ; and a drive device connected with the transparent cover and configured to drive the transparent cover to rotate so as to enable the wiping member to wipe an outer surface of the transparent cover , characterized in that the casing body comprises an upper casing and a lower casing that are spaced apart from each other in an up-and-down direction, and the transparent cover is disposed between the upper casing and the lower casing ; the transparent cover has an upper end rotatably fitted with an inner peripheral surface of the upper casing and a lower end rotatably fitted with an inner peripheral surface of the lower casing , and an outer peripheral surface of the upper casing and an outer peripheral surface of the lower casing protrude beyond an outer peripheral surface of the transparent cover .
A capacitive micromachined ultrasonic transducer (CMUT) device comprising a membrane coupled to a first electrode (S1), a substrate opposing the membrane with a gas or vacuum cavity there between, said substrate being coupled to a second (S2) and a third (S3) electrodes, wherein the second electrode (S2) opposes the first electrode (S1) in a peripheral region and the third electrode (S3) opposes the first electrode (S1) in a central region ; and at least one drive circuit comprising an AC-source and a DC-source each being coupled to the second electrode (S2), the at least one drive circuit being adapted to (a) bring the membrane into a collapsed state in which the membrane is collapsed to the substrate in the central region , by applying a DC voltage over the first and the third electrodes, and (b) activate the CMUT device by applying an AC voltage having a CMUT operating frequency over the first and the second electrodes; characterized in that the third electrode (S3) is electrically coupled to the second electrode (S2) via a high impedance resistor (R) having an impedance value higher than an AC impedance between the first and the second electrodes, when the membrane is in the collapsed state and the CMUT device is activated at operating frequency.
A purine base adsorption material containing a 2:1 type layered clay mineral as represented by the following general formula: [(E1 m+ a/m E2 + b )(M1 c M2 d )(Si 4-e Al e )O 10 (OH f F 2-f )] where m is a natural number of 2 to 4, parameters a, b, c, d, e and f satisfy inequalities: 0.2≦a+b<0.75, 0.12≦a≦0.6, 0≦b, 0≦c≦3.0, 0≦d≦2, 2≦c+d ≦3, 0≦e<4, and 0≦f≦2, E1 is at least one element selected from the group consisting of Mg, Al, Si, Sc, Ca, Sr, Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Ga, Zr and Ba, said element turning into a polyvalent cation between layers, E2 is at least one element selected from the group consisting of Na, Li and K, said element turning into a monovalent cation between layers, M1 is at least one metal element selected from the group consisting of Mg, Fe, Mn, Ni, Zn and Li, and M2 is at least one metal element selected from the group consisting of Al, Fe, Mn and Cr, wherein: the M1 and M2 form an octahedral sheet. m is a natural number of 2 to 4, parameters a, b, c, d, e and f satisfy inequalities: 0.2≦a+b<0.75, 0.12≦a≦0.6, 0≦b, 0≦c≦3.0, 0≦d≦2, 2≦c+d ≦3, 0≦e<4, and 0≦f≦2, E1 is at least one element selected from the group consisting of Mg, Al, Si, Sc, Ca, Sr, Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Ga, Zr and Ba, said element turning into a polyvalent cation between layers, E2 is at least one element selected from the group consisting of Na, Li and K, said element turning into a monovalent cation between layers, M1 is at least one metal element selected from the group consisting of Mg, Fe, Mn, Ni, Zn and Li, and M2 is at least one metal element selected from the group consisting of Al, Fe, Mn and Cr, wherein: the M1 and M2 form an octahedral sheet.
A method of making a catheter having a shaft, the method comprising: forming an outer wall of the catheter shaft from a water degradable material; forming an inner core of a water degradable material, wherein the inner core is located within the outer wall of the catheter shaft and the inner core defines a structural reinforcement member that reinforces the outer wall to enhance rigidity and radial incompressibility of the elongated shaft; and wherein the outer wall degrades at a slower rate than the inner core. forming an outer wall of the catheter shaft from a water degradable material; forming an inner core of a water degradable material, wherein the inner core is located within the outer wall of the catheter shaft and the inner core defines a structural reinforcement member that reinforces the outer wall to enhance rigidity and radial incompressibility of the elongated shaft; and wherein the outer wall degrades at a slower rate than the inner core.
A fluorinated chromium-containing fluorination catalyst which consists essentially of (i) one or more compounds of zinc and (ii) one or more chromium compounds comprising one or more chromium (III) compounds selected from the group consisting of chromia, chromium (III) fluoride, fluorinated chromia and chromium (III) oxyfluorides wherein: from 1.0 to 10.0 % of the total weight of the catalyst is zinc contained in aggregates which have a size across their largest dimension of up to 1 micron and which are distributed throughout at least the surface region of the catalyst, greater than 70 weight % of the zinc-containing aggregates contain a concentration of zinc that is within ±1 weight % of the modal concentration of zinc in the zinc-containing aggregates, and the catalyst has a surface area in the range of from 20 to 300 m 2 /g and is amorphous or is partially crystalline containing from 0.1 to 5 % by weight of one or more crystalline compounds of chromium and/or one or more crystalline compounds of zinc based on the total weight of the catalyst. from 1.0 to 10.0 % of the total weight of the catalyst is zinc contained in aggregates which have a size across their largest dimension of up to 1 micron and which are distributed throughout at least the surface region of the catalyst, greater than 70 weight % of the zinc-containing aggregates contain a concentration of zinc that is within ±1 weight % of the modal concentration of zinc in the zinc-containing aggregates, and the catalyst has a surface area in the range of from 20 to 300 m 2 /g and is amorphous or is partially crystalline containing from 0.1 to 5 % by weight of one or more crystalline compounds of chromium and/or one or more crystalline compounds of zinc based on the total weight of the catalyst.
Method for preparing a sushi-like food product that is ready for immediate consumption, wherein a consumable product roll is prepared, comprising a core of a filling which is enveloped by a casing of a high-carbohydrate composition and by a barrier layer covering the casing, wherein the barrier layer is covered with a batter layer, and wherein a crumb layer is arranged on the batter layer, characterized in that the product roll comprises an at least substantially cylindrical body having a diameter of between about 2 and 8 centimetres at a length of between about 5 and 20 centimetres, in that the product roll is subjected to a freezing step for complete freezing thereof, prior to baking, in that an edible sheet is employed as barrier layer, in particular a sheet of (sea)weed (nori) or rice paper, in which the casing and filling are rolled, in that an optionally partially cooked grain product, particularly at least partially cooked rice, is applied as casing, and in that the product roll is heated, in a frozen state, by baking or deep-frying until the batter layer with the crumb layer has formed into a crispy outer layer, while the temperature of the filling still does not exceed room temperature.
Gas sampling lance with a gas sample pipe for sampling gases wherein the gas sample pipe is divided in a lance pipe and a connecting pipe which connects the lance pipe to a gas scrubber, the gas sampling lance further comprising a first scraper to clean the inside of the lance pipe and a second scraper to clean the inside of the connecting pipe , wherein the lance pipe and the connecting pipe are configured at an angle to each other.
A joining method for a medical device which is a surgical instrument or implant having a shaft and an attachment to be fixed thereto, wherein the joining method comprises the following steps: heating (S1) the attachment or cooling of the shaft so that an inner diameter (d H ) of an opening of the heated attachment is larger than an outer diameter (D) of the shaft , subsequently inserting (S2) the shaft into the opening of the attachment , subsequently cooling (S3) the attachment in order to shrink it onto the shaft substantially without a gap, or heating the shaft in order to expand it within the opening of the attachment , so that the shaft and the opening are connected via an interference fit, characterized in that the joining method further comprises the following steps: monitoring (S4) the temperature of the attachment or respectively of the shaft at at least a first point (P1) close to the opening or respectively at an outer circumference of an end of the shaft to be inserted into the attachment as well as at a second point at an attachment border region or respectively shaft region spaced apart from the first point (P2, P3). heating (S1) the attachment or cooling of the shaft so that an inner diameter (d H ) of an opening of the heated attachment is larger than an outer diameter (D) of the shaft , subsequently inserting (S2) the shaft into the opening of the attachment , subsequently cooling (S3) the attachment in order to shrink it onto the shaft substantially without a gap, or heating the shaft in order to expand it within the opening of the attachment , so that the shaft and the opening are connected via an interference fit, characterized in that the joining method further comprises the following steps: monitoring (S4) the temperature of the attachment or respectively of the shaft at at least a first point (P1) close to the opening or respectively at an outer circumference of an end of the shaft to be inserted into the attachment as well as at a second point at an attachment border region or respectively shaft region spaced apart from the first point (P2, P3).
Paint booth , comprising a paint chamber , wherein a negative pressure is present in the paint chamber and an excess pressure is present in a machine room adjacent to the paint chamber , and at least one paint nozzle which can be displaced on a rail is arranged in the paint chamber , wherein the rail is, in cross-section, formed in two parts at least in longitudinal portions thereof, wherein an opening extending in the longitudinal direction is formed between the two parts , wherein a carriage for receiving the paint nozzle is displaceably arranged in the opening and a displaceable belt is arranged on both sides of the carriage , so that on axial displacement of the carriage the belt is also displaced and thereby seals the opening , characterised in that the belt is guided in an upper part and a lower part of the rail , the guide being constructed in a sealing manner as a groove.
A rotary clamping mechanism, comprising a cylinder and a rotary member; the rotary member is a clamping member wherein an upper part of the clamping member is provided with two upper sliding blocks and a lower part of the clamping member is provided with two lower sliding blocks ; a wall groove is arranged at a lower side of the inner wall of the cylinder ; a lower edge of the inner wall of the cylinder is configured with two arc-shaped blocks ; the lower side of the rotary member touches against the inside of the wall groove which is configured with an arc-shaped groove in a stagger way with the arc-shaped blocks to contract and compress by rotation; characterized in that the clamping member is an integral clamping member .
System for connecting a medical implant to an insertion aid , comprising: a first helical connecting member at the proximal end of the medical implant , a second helical connecting member at the distal end of the insertion aid , characterized by a core wire , which in a first operating state of the system locks the first helical connecting member and the second helical connecting member relative to each other, wherein in the first operating state the turns of the first helical connecting member and the turns of the second helical connecting member at least partially engage each other and the core wire extends through the first helical connecting member and the second helical connecting member , and wherein the insertion aid is cylindrical and has a hollow space along the longitudinal axis, and wherein the core wire is located within the hollow space and movable relative to the insertion aid along the longitudinal axis of the insertion aid . a first helical connecting member at the proximal end of the medical implant , a second helical connecting member at the distal end of the insertion aid , characterized by a core wire , which in a first operating state of the system locks the first helical connecting member and the second helical connecting member relative to each other, wherein in the first operating state the turns of the first helical connecting member and the turns of the second helical connecting member at least partially engage each other and the core wire extends through the first helical connecting member and the second helical connecting member , and wherein the insertion aid is cylindrical and has a hollow space along the longitudinal axis, and wherein the core wire is located within the hollow space and movable relative to the insertion aid along the longitudinal axis of the insertion aid .
Guideway system , comprising: - a first guide rail , and - at least one second guide rail , - wherein the first guide rail and the at least one second guide rail each define a travel direction vector (F1, F2) and a normal vector (N1, N2), which is oriented vertically to the travel direction vector (F1, F2), - wherein the first guide rail and the at least one second guide rail comprise at least one common interaction section , characterized in that , in at least one interaction section , the normal vectors (N1, N2) of the first guideway and of the at least one second guideway substantially point toward each other, at least in sections, and in that the first guideway and/or the at least one second guideway travel helically at least once around the respective other of the two guideways . - a first guide rail , and - at least one second guide rail , - wherein the first guide rail and the at least one second guide rail each define a travel direction vector (F1, F2) and a normal vector (N1, N2), which is oriented vertically to the travel direction vector (F1, F2), - wherein the first guide rail and the at least one second guide rail comprise at least one common interaction section ,
Rotary control device comprising a user interface surface that is embodied to rotate with respect to a housing of the device around a rotational axis of the device, further comprising a sensor unit for monitoring the orientation and/or rotational movement of the user interface surface with respect to the housing, a processing unit , and a communications interface for transmitting control signals according to an output from the processing unit, said output being generated by the processing unit on the basis of sensor data from the sensor unit, wherein the rotary control device further comprises a magnetorheological actuator, wherein the magnetorheological actuator comprises a rotational element that is mechanically connected to the user interface surface and serves to interact with a magnetorheological fluid of the magnetorheological actuator, and wherein the magnetorheological actuator comprises an assembly for generating and/or manipulating properties of a magnetic field acting on the magnetorheological fluid such that the magnetorheological actuator serves to modulate torque transmission between the user interface surface and the housing, characterized in that in that the rotary control device further comprises a servo actuator that is embodied to apply torque to the user interface surface in accordance with governing signals output by the processing unit of the device.
A flap wheel comprising: a hub , a plurality of abrasive flaps , wherein the plurality of abrasive flaps are circumferentially disposed about said hub , wherein the abrasive flaps comprise a fabric backing , and an abrasive layer disposed on the fabric backing , wherein the fabric backing comprises a fabric and a reinforcing polymer composition dispersed throughout the fabric , wherein the fabric comprises yarns in a warp direction (A) and yarns in a weft direction (B), wherein the yarns in the warp direction (A) comprise a blend of natural fibers and synthetic fibers, and wherein the yarns in the weft direction (B) comprise natural fibers. a hub , a plurality of abrasive flaps , wherein the plurality of abrasive flaps are circumferentially disposed about said hub , wherein the abrasive flaps comprise a fabric backing , and an abrasive layer disposed on the fabric backing , wherein the fabric backing comprises a fabric and a reinforcing polymer composition dispersed throughout the fabric , wherein the fabric comprises yarns in a warp direction (A) and yarns in a weft direction (B), wherein the yarns in the warp direction (A) comprise a blend of natural fibers and synthetic fibers, and wherein the yarns in the weft direction (B) comprise natural fibers.