mhurhangee/patent-ind-claim-en huggingface dataset:
Method for diagnosing a state in a vehicle having a CAN communication bus , to which electronic control units of the vehicle are connected, for identifying a component which is responsible for unwanted CAN communication bus activation after the vehicle has entered an idle state, having the following steps of: - providing an idle state of the vehicle in which the electronic control units are configured, during proper operation when there is no fault, not to emit a CAN message via the CAN communication bus , wherein, in order to provide the idle state of the vehicle , an ignition of the vehicle is switched off and the vehicle is shut off, - coupling a diagnostic test device to at least one diagnostic connection of the vehicle , which diagnostic connection is coupled to the CAN communication bus , - monitoring the CAN communication bus in a permanent scanning function for emitted CAN messages (21-2n) after entering the idle state by means of the diagnostic test device , - capturing a CAN message emitted on the CAN communication bus after entering the idle state and assigning the captured CAN message to an electronic control unit emitting the CAN message by means of the diagnostic test device , - providing information relating to temporal occurrence of the captured CAN message in a series of CAN messages (21-2n) occurring on the CAN communication bus after entering the idle state by means of the diagnostic test device , and - providing information for identifying the electronic control unit emitting the captured CAN message by means of the diagnostic test device . - providing an idle state of the vehicle in which the electronic control units are configured, during proper operation when there is no fault, not to emit a CAN message via the CAN communication bus , wherein, in order to provide the idle state of the vehicle , an ignition of the vehicle is switched off and the vehicle is shut off, - coupling a diagnostic test device to at least one diagnostic connection of the vehicle , which diagnostic connection is coupled to the CAN communication bus , - monitoring the CAN communication bus in a permanent scanning function for emitted CAN messages (21-2n) after entering the idle state by means of the diagnostic test device , - capturing a CAN message emitted on the CAN communication bus after entering the idle state and assigning the captured CAN message to an electronic control unit emitting the CAN message by means of the diagnostic test device , - providing information relating to temporal occurrence of the captured CAN message in a series of CAN messages (21-2n) occurring on the CAN communication bus after entering the idle state by means of the diagnostic test device , and - providing information for identifying the electronic control unit emitting the captured CAN message by means of the diagnostic test device .
Floor panel , comprising a laminate of: - a magnesium oxide based core layer ; - at least one magnesium oxide based upper crust layer positioned on top of said core layer , wherein the density of said upper crust layer is larger than the density of the core layer ; characterized in that said laminate of the floor panel further comprises: - at least one upper reinforcing layer situated in between said core layer and said at least one upper crust layer , wherein the upper reinforcing layer comprises a fiberglass mesh , wherein the fiberglass mesh is provided with a coating. - a magnesium oxide based core layer ; - at least one magnesium oxide based upper crust layer positioned on top of said core layer , wherein the density of said upper crust layer is larger than the density of the core layer ; characterized in that said laminate of the floor panel further comprises: - at least one upper reinforcing layer situated in between said core layer and said at least one upper crust layer ,
A clipping machine for producing sausage-shaped products (S), like sausages, containing a flowable filling material in a tubular or bag-shaped packaging casing (M), the clipping machine comprising: - a filling tube for feeding filling material into the tubular or bag-shaped packaging casing (M) stored on the filling tube and being closed at the front end by a closure means (C), like a closure clip; - a casing brake assembly arranged on the filling tube , for applying a braking force to the tubular or bag-shaped packaging casing (M) while being pulled-off from the filling tube ; - gathering means for gathering the filled tubular or bag-shaped packaging casing (M) and for forming a plait-like portion (P) thereto; and - a clipping device for placing and closing at least one closure means (C) on the plait-like portion (P), characterized by a guide unit for guiding the closure means (C) towards the clipping device , comprising at least one sensing device (SD) having a first sensor element determining the presence or absence of a closure means (C) in the guide unit . - a filling tube for feeding filling material into the tubular or bag-shaped packaging casing (M) stored on the filling tube and being closed at the front end by a closure means (C), like a closure clip; - a casing brake assembly arranged on the filling tube , for applying a braking force to the tubular or bag-shaped packaging casing (M) while being pulled-off from the filling tube ; - gathering means for gathering the filled tubular or bag-shaped packaging casing (M) and for forming a plait-like portion (P) thereto; and - a clipping device for placing and closing at least one closure means (C) on the plait-like portion (P),
Grinding plate for a hand-held grinder , with a drive holder for non-rotatable attachment to a drive of the hand-held grinder , so that the grinding plate can be driven by the grinder to perform a grinding movement suitable for a grinding machining of a workpiece (W), in particular a rotational and/or eccentric movement, wherein a grinding plate body of the grinding plate has a machining surface provided with an adhesive layer for the releasable attachment of an abrasive provided with a mating adhesive layer , being in particular designed as a grinding sheet and having an abrasion layer for an abrasive machining of the workpiece (W), wherein at the machining surface there are located dust-laden air inflow openings (44-48) for dust-laden air (S) generated during the machining of the workpiece (W), loaded with dust and entering through dust-laden air through-flow openings (84-88) of the abrasive (80; 180) along a main flow direction (H), which dust-laden air inflow openings (44-48) are connected to at least one dust-laden air outflow opening at a machine side of the grinding plate remote from the machining surface by way of an extraction passage arrangement , so that, if the grinding plate is mounted at the grinder , an extraction device of the grinder can draw in dust-laden air (S) entering the dust-laden air inflow openings (44-48) through the at least one dust-laden air outflow opening , wherein the grinding plate has at least one dust-laden air passage , which has a dust-laden air inlet between the abrasion layer of the abrasive and the machine side of the grinding plate for conveying dust away from the environment of the abrasion layer and is in direct flow-connection with the at least one dust-laden air outflow opening away from the abrasion layer , characterised in that it has at least one supply air passage , which has at least one inward-flow opening away from the machining surface , in particular at an outer circumference of the grinding plate and/or at an inner circumference of an opening communicating with the drive holder and located at the machining surface , and at least one supply air outward-flow opening at the machining surface , so that back-flow air can flow in through the at least one inward-flow opening and out from the at least one supply air outward-flow opening , in order to flow towards the dust-laden air inflow openings (44-48) between the abrasive and the grinding plate to form a back-flow airflow.
Composition comprising a) ginger powder, b) sage powder, and c) rosemary powder; wherein the particles of the ginger powder have a size of less than 800 μm, and the sage powder and rosemary powder have a size of less than 500 μm; and wherein the ginger powder (G), the sage powder (S), and the rosemary powder (R) are present in a weight ratio of G : S : R = 1 to 4 : 1 to 3 : 1 to 3. a) ginger powder, b) sage powder, and c) rosemary powder; wherein the particles of the ginger powder have a size of less than 800 μm, and the sage powder and rosemary powder have a size of less than 500 μm; and wherein the ginger powder (G), the sage powder (S), and the rosemary powder (R) are present in a weight ratio of G : S : R = 1 to 4 : 1 to 3 : 1 to 3.
A method comprising: receiving, by a wireless device from a first base station, at least one radio resource control, RRC, message comprising: master cell group, MCG, configuration parameters of a primary cell, PCell, of the first base station; secondary cell group, SCG, configuration parameters of a primary SCG cell, PSCell, of a second base station, for dual connectivity of the wireless device with the first base station and the second base station; the method is characterised by determining a failure of the PCell before the PSCell configuration is applied; based on the failure of the PCell, performing a cell selection; in response to the selected cell being the PSCell, synchronizing with the PSCell based on the SCG configuration parameters. master cell group, MCG, configuration parameters of a primary cell, PCell, of the first base station; secondary cell group, SCG, configuration parameters of a primary SCG cell, PSCell, of a second base station, for dual connectivity of the wireless device with the first base station and the second base station; the method is characterised by determining a failure of the PCell before the PSCell configuration is applied; based on the failure of the PCell, performing a cell selection; in response to the selected cell being the PSCell, synchronizing with the PSCell based on the SCG configuration parameters.
A method of testing a multi user multiple input multiple output, MU-MIMO, wireless device under test, DUT , supporting a communication protocol, the method comprising: simulating at least one MU-MIMO wireless client supporting said communication protocol and associated with said DUT ; generating, by said at least one simulated MU-MIMO wireless client, at least one first simulated channel matrix; receiving, by the at least one simulated MU-MIMO wireless client, a first sounding packet from said DUT , transmitting said at least one first simulated channel matrix from said at least one simulated MU-MIMO wireless client to said DUT in response to said first sounding packet; generating, by said simulated MU-MIMO wireless client, at least one second simulated channel matrix; receiving, by said at least one simulated MU-MIMO wireless client, a second sounding packet transmitted from said DUT ; transmitting said at least one second simulated channel matrix from said at least one simulated MU-MIMO wireless client to said DUT responsive to said second sounding packet; wherein said at least one second simulated channel matrix includes a different set of channel parameters than those in said at least one first simulated channel matrix to simulate a spatial movement of said at least one MU-MIMO wireless client. simulating at least one MU-MIMO wireless client supporting said communication protocol and associated with said DUT ; generating, by said at least one simulated MU-MIMO wireless client, at least one first simulated channel matrix; receiving, by the at least one simulated MU-MIMO wireless client, a first sounding packet from said DUT , transmitting said at least one first simulated channel matrix from said at least one simulated MU-MIMO wireless client to said DUT in response to said first sounding packet; generating, by said simulated MU-MIMO wireless client, at least one second simulated channel matrix; receiving, by said at least one simulated MU-MIMO wireless client, a second sounding packet transmitted from said DUT ; transmitting said at least one second simulated channel matrix from said at least one simulated MU-MIMO wireless client to said DUT responsive to said second sounding packet; wherein said at least one second simulated channel matrix includes a different set of channel parameters than those in said at least one first simulated channel matrix to simulate a spatial movement of said at least one MU-MIMO wireless client.
A method of inducing neuronal injury in one or more regions of interest in a non-human animal comprising the introduction to one or more regions of the animal's central nervous system (CNS) of a composition comprising fibrinogen or a biologically active fragment thereof which induces microglial activation in the CNS to induce neuronal injury.
A food or feed processing system comprising: an extruder including an elongated, tubular barrel presenting an input for receiving food or feed material, and an outlet , with at least one elongated, axially rotatable, helically flighted screw within the barrel , said extruder operable to initially process said material and to generate an extrudate from said outlet ; a processor including -- an elongated, tubular processor barrel presenting an inner surface , an extrudate inlet , and a product output; a conduit operatively connecting said extruder outlet and said extrudate inlet , said processor operable to further heat and process said extrudate and create a final product from said product output; characterized in that said processor includes an elongated body within said processor barrel and presenting an outer surface adjacent and proximal to said inner surface , there being an annular region between said inner and outer surfaces ; a tubular processing element within said annular region ; and a drive assembly operably coupled with said processing element in order to rotate said processing element relative to said elongated body , to thereby scrape material from the inner surface of said processor barrel and the outer surface of said body . an extruder including an elongated, tubular barrel presenting an input for receiving food or feed material, and an outlet , with at least one elongated, axially rotatable, helically flighted screw within the barrel , said extruder operable to initially process said material and to generate an extrudate from said outlet ; a processor including -- an elongated, tubular processor barrel presenting an inner surface , an extrudate inlet , and a product output; a conduit operatively connecting said extruder outlet and said extrudate inlet , said processor operable to further heat and process said extrudate and create a final product from said product output; characterized in that said processor includes an elongated body within said processor barrel and presenting an outer surface adjacent and proximal to said inner surface , there being an annular region between said inner and outer surfaces ; a tubular processing element within said annular region ; and an elongated, tubular processor barrel presenting an inner surface , an extrudate inlet , and a product output; a conduit operatively connecting said extruder outlet and said extrudate inlet , said processor operable to further heat and process said extrudate and create a final product from said product output; characterized in that said processor includes an elongated body within said processor barrel and presenting an outer surface adjacent and proximal to said inner surface , there being an annular region between said inner and outer surfaces ; a tubular processing element within said annular region ; and a drive assembly operably coupled with said processing element in order to rotate said processing element relative to said elongated body , to thereby scrape material from the inner surface of said processor barrel and the outer surface of said body .
Combination of an agricultural towing vehicle and a big baler for pressing square bales , having a receiving device for harvested material lying on the ground, a cutting device for cutting picked-up harvested material to at least one predefinable cut length, a pre-pack chamber , a gatherer device , and a baling channel for baling a square bale from packs (28, 28', 28") of harvested material precompressed in the pre-pack chamber , wherein the gatherer device precompresses the harvested material into packs (28, 28', 28") in the pre-pack chamber and conveys the packs (28, 28', 28") into the baling channel , and also a binding system for tying up the square bale is provided, wherein the cutting device is controllable depending on a binding operation executed by the binding system and on at least one variable representing a square-bale dimension, such that, in each case when picking up harvested material for at least one of the first and for at least one of the last packs (28', 28") of a square-bale baling operation, the cutting device is able to be deactivated or is operable with a greater cut length compared with the other packs , characterized in that , with an input device that is arranged on the agricultural vehicle , the value that is settable for the at least one variable representing the square-bale dimension or the value that is settable for the at least one variable representing the square-bale dimension and a value for a number of the first and the last packs (28', 28") of a square-bale baling operation is predefinable, depending on which the cutting device is actuable.
Dendritic cell composition comprising (i) dendritic cells expressing at least one fusion protein comprising - at least one antigen or a fragment thereof, - an endoplasmic reticulum (ER)- translocation signal sequence preceding the N-terminus of the antigen, and - a transmembrane and cytoplasmic domain comprising an endosomal/lysosomal targeting sequence following the C-terminus of the antigen, and (ii) dendritic cells expressing at least one antigen or a fragment thereof without - an endoplasmic reticulum (ER)- translocation signal sequence preceding the N-terminus of the antigen or fragment thereof, and - a transmembrane and cytoplasmic domain comprising an endosomal/lysosomal targeting sequence following the C-terminus of the antigen or fragment thereof, wherein the antigen of (i) and (ii) is the same antigen, wherein the antigen is a tumor antigen or a viral antigen, and wherein the fragment has a length of at least 9 amino acids. (i) dendritic cells expressing at least one fusion protein comprising - at least one antigen or a fragment thereof, - an endoplasmic reticulum (ER)- translocation signal sequence preceding the N-terminus of the antigen, and - a transmembrane and cytoplasmic domain comprising an endosomal/lysosomal targeting sequence following the C-terminus of the antigen, and - at least one antigen or a fragment thereof, - an endoplasmic reticulum (ER)- translocation signal sequence preceding the N-terminus of the antigen, and - a transmembrane and cytoplasmic domain comprising an endosomal/lysosomal targeting sequence following the C-terminus of the antigen, (ii) dendritic cells expressing at least one antigen or a fragment thereof without - an endoplasmic reticulum (ER)- translocation signal sequence preceding the N-terminus of the antigen or fragment thereof, and - a transmembrane and cytoplasmic domain comprising an endosomal/lysosomal targeting sequence following the C-terminus of the antigen or fragment thereof, wherein the antigen of (i) and (ii) is the same antigen, wherein the antigen is a tumor antigen or a viral antigen, and wherein the fragment has a length of at least 9 amino acids. - an endoplasmic reticulum (ER)- translocation signal sequence preceding the N-terminus of the antigen or fragment thereof, and - a transmembrane and cytoplasmic domain comprising an endosomal/lysosomal targeting sequence following the C-terminus of the antigen or fragment thereof, wherein the antigen of (i) and (ii) is the same antigen,
A low-pressure casting secondary pressure process for an aluminum wheel, comprising low-pressure filling and secondary pressurization, wherein the holding pressure is delayed for a period of time after a mold cavity is full of molten aluminum alloy under the low-pressure filling process, and the mold cavity is closed after a rim is completely solidified under low pressure feeding; wherein five extrusion rods at corresponding positions of the wheel center of the aluminum wheel move down to apply mechanical pressure for secondary pressure feeding of the aluminum wheel to realize sequential solidification, until the forming process of crystallization and solidification of a casting is completed; a low pressure holding delay stage should be set after the cavity is full of the molten aluminum alloy and before a sprue spreader is lowered to seal the low pressure in a holding furnace , in which the pressure holding time is between 10 and 20 seconds; the sprue spreader is in clearance fit with a center sprue with a clearance distance of 0 to 2 mm; the clearance fit surface of the sprue spreader and the center sprue is a tapered surface, and in order to facilitate de-molding, the tapered angle is between 0° and 5°; before the center extrusion rods move down, a water cooling holding delay stage is set, and the delayed pressure holding time is between 10 and 20 seconds; the lowering stage of the center extrusion rods is divided into first low speed and then high speed, the lowering speed at the low-speed stage of the lowering process of the center extrusion rods is 0 to 0.2 mm/s, the lowering speed at the high-speed stage of the lowering process of the center extrusion rods is 0.5 to 0.8 mm/s, and the cross section diameters of the center extrusion rods are 50 mm.
A process analyzer adapter, comprising: - a first part (B); - a second part (D); and - a third part (E); wherein, the first part is configured to connect to a process analyzer that is configured to analyse a process inside an industrial process vessel, apparatus or system; wherein, the first part is rotationally connected to the second part, wherein the first part can rotate about a first axis; wherein, the second part is rotationally connected to the third part, wherein the second part can rotate about a second axis, and wherein rotation of the second part about the second axis is configured to tilt the first axis; and wherein, the third part is configured to connect to a flange of an industrial process vessel, apparatus or system to position the process analyzer adapter outside of the industrial process vessel, apparatus or system. - a first part (B); - a second part (D); and - a third part (E); wherein, the first part is configured to connect to a process analyzer that is configured to analyse a process inside an industrial process vessel, apparatus or system; wherein, the first part is rotationally connected to the second part, wherein the first part can rotate about a first axis; wherein, the second part is rotationally connected to the third part, wherein the second part can rotate about a second axis, and wherein rotation of the second part about the second axis is configured to tilt the first axis; and wherein, the third part is configured to connect to a flange of an industrial process vessel, apparatus or system to position the process analyzer adapter outside of the industrial process vessel, apparatus or system. wherein, the first part is configured to connect to a process analyzer that is configured to analyse a process inside an industrial process vessel, apparatus or system; wherein, the first part is rotationally connected to the second part, wherein the first part can rotate about a first axis; wherein, the second part is rotationally connected to the third part, wherein the second part can rotate about a second axis, and wherein rotation of the second part about the second axis is configured to tilt the first axis; and wherein, the third part is configured to connect to a flange of an industrial process vessel, apparatus or system to position the process analyzer adapter outside of the industrial process vessel, apparatus or system.