mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: determining, by a controller device, whether a pairing between the controller device and an accessory device has been established; receiving, by the controller device, a first identify proof generated by the accessory device; in accordance with a determination that the pairing between the controller device and the accessory device has been established: deriving, by the controller device, a first symmetric key associated with a second symmetric key derived by the accessory device; decrypting the first identity proof using the first symmetric key; and verifying a signature of the accessory device extracted from the first identity proof generated by the accessory device; and transmitting, to the accessory device, a message indicating that the controller device verified the pairing with the accessory device. determining, by a controller device, whether a pairing between the controller device and an accessory device has been established; receiving, by the controller device, a first identify proof generated by the accessory device; in accordance with a determination that the pairing between the controller device and the accessory device has been established: deriving, by the controller device, a first symmetric key associated with a second symmetric key derived by the accessory device; decrypting the first identity proof using the first symmetric key; and verifying a signature of the accessory device extracted from the first identity proof generated by the accessory device; and deriving, by the controller device, a first symmetric key associated with a second symmetric key derived by the accessory device; decrypting the first identity proof using the first symmetric key; and verifying a signature of the accessory device extracted from the first identity proof generated by the accessory device; and transmitting, to the accessory device, a message indicating that the controller device verified the pairing with the accessory device.
An article molded from an oil gel composition consisting essentially of: 10-40 wt.% of a hydrogenated styrenic block copolymer (HSBC), having a general formula A-B, A-B-A, A-B-A-B, (A-B-A)nX, (A-B)nX, or mixtures thereof, where each A block is a mono alkenyl arene polymer, each B block is a conjugated diene, n is an integer from 2 to 30, and X is a coupling agent residue; up to 15 wt. % of a filler; at least 50 wt.% of a plasticizer selected from mineral oil, a paraffinic oil, an oil-enriched in paraffin, and mixtures thereof; 0.25-5 wt.% of a tack reducing component selected from the group of stearic acid, metal stearates, long chain fatty acids, fatty acid salts, fatty acid esters, amide waxes, ethylene-bis-stearamides, erucamide, polyester modified siloxanes, and mixtures thereof; wherein the article is molded in a process without additional application of an external mold release surface coating or a powder coating, and wherein the article has an average peel strength of less than 53 N/m (0.3 lbf/in) according to modified ASTM D 1876. 10-40 wt.% of a hydrogenated styrenic block copolymer (HSBC), having a general formula A-B, A-B-A, A-B-A-B, (A-B-A)nX, (A-B)nX, or mixtures thereof, where each A block is a mono alkenyl arene polymer, each B block is a conjugated diene, n is an integer from 2 to 30, and X is a coupling agent residue; up to 15 wt. % of a filler; at least 50 wt.% of a plasticizer selected from mineral oil, a paraffinic oil, an oil-enriched in paraffin, and mixtures thereof; 0.25-5 wt.% of a tack reducing component selected from the group of stearic acid, metal stearates, long chain fatty acids, fatty acid salts, fatty acid esters, amide waxes, ethylene-bis-stearamides, erucamide, polyester modified siloxanes, and mixtures thereof; wherein the article is molded in a process without additional application of an external mold release surface coating or a powder coating, and wherein the article has an average peel strength of less than 53 N/m (0.3 lbf/in) according to modified ASTM D 1876.
A method for determining placement of at least one antenna of customer premises equipment in a fixed wireless access network, the method comprising: generating a map of signal strength for each of a plurality of possible antenna locations among one or more buildings, wherein the plurality of possible antenna locations is at least one of an indoor antenna location or an outdoor antenna location; identifying a percentage of a building having a level of wireless network coverage, wherein the identifying of the percentage includes calculating a ratio of a sum of each segment length of considered covered segments of perimeter of the building to the perimeter of the building, wherein the perimeter is divided into said segments, and wherein the segments considered covered receive said level of the wireless network coverage; and determining a location for placement of said antenna based on the generated map of signal strength and the corresponding identified percentage of the perimeter of the building, wherein the location is determined to get best possible signal strength. generating a map of signal strength for each of a plurality of possible antenna locations among one or more buildings, wherein the plurality of possible antenna locations is at least one of an indoor antenna location or an outdoor antenna location; identifying a percentage of a building having a level of wireless network coverage, wherein the identifying of the percentage includes calculating a ratio of a sum of each segment length of considered covered segments of perimeter of the building to the perimeter of the building, wherein the perimeter is divided into said segments, and wherein the segments considered covered receive said level of the wireless network coverage; and determining a location for placement of said antenna based on the generated map of signal strength and the corresponding identified percentage of the perimeter of the building, wherein the location is determined to get best possible signal strength.
A method for group scheduling grant, comprising: reporting, by a user equipment, to a radio network controller a capability of the user equipment to support an uplink enhanced dedicated channel; receiving, by the user equipment, a configuration message transmitted by the radio network controller, wherein the configuration message carries an enhanced-radio network temporary identity, E-RNTI; the E-RNTI carried in the configuration message comprises an E-RNTI allocated to a group to which the user equipment belongs; monitoring, by the user equipment, a first channel by using the E-RNTI carried in the configuration message, and activating or deactivating a hybrid automatic repeat request, HARQ, process according to an absolute grant received by the user equipment in the first channel; wherein the E-RNTI carried in the configuration message comprises a first E-RNTI and a primary E-RNTI; the E-RNTI allocated to the group to which the user equipment belongs is the first E-RNTI; wherein the reporting, by the user equipment, to the radio network controller the capability of the user equipment to support the uplink enhanced dedicated channel comprises: reporting, by the user equipment, to the radio network controller a capability of the user equipment to support receiving an absolute grant which is identified as the first E-RNTI during an uplink enhanced dedicated channel operation. reporting, by a user equipment, to a radio network controller a capability of the user equipment to support an uplink enhanced dedicated channel; receiving, by the user equipment, a configuration message transmitted by the radio network controller, wherein the configuration message carries an enhanced-radio network temporary identity, E-RNTI; the E-RNTI carried in the configuration message comprises an E-RNTI allocated to a group to which the user equipment belongs; monitoring, by the user equipment, a first channel by using the E-RNTI carried in the configuration message, and activating or deactivating a hybrid automatic repeat request, HARQ, process according to an absolute grant received by the user equipment in the first channel; reporting, by the user equipment, to the radio network controller a capability of the user equipment to support receiving an absolute grant which is identified as the first E-RNTI during an uplink enhanced dedicated channel operation.
Double clutch system for a motor vehicle drivetrain, having - a casing, - a first and a second friction clutch (32, 34) which are arranged in the casing so as to be offset in an axial direction and which form a clutch device with a first axial side and a second axial side, and - a first actuator for actuating the first friction clutch and a second actuator for actuating the second friction clutch, and - an axial support device which is arranged in an axial direction between the first and the second friction clutch (32, 34), wherein the axial support device has a first support element for the first friction clutch and a second support element for the second friction clutch, wherein the double clutch system is of substantially symmetrical form with respect to a radial plane, characterized in that the support elements (58, 60) are separate and spaced apart from one another in an axial direction, and in that the first and the second support element (58, 60) are each formed as a support ring, wherein the support rings (58, 60) are axially fixed to a common outer plate carrier connecting element. - a casing, - a first and a second friction clutch (32, 34) which are arranged in the casing so as to be offset in an axial direction and which form a clutch device with a first axial side and a second axial side, and - a first actuator for actuating the first friction clutch and a second actuator for actuating the second friction clutch, and - an axial support device which is arranged in an axial direction between the first and the second friction clutch (32, 34), wherein the axial support device has a first support element for the first friction clutch and a second support element for the second friction clutch, wherein the double clutch system is of substantially symmetrical form with respect to a radial plane,
A non-electroslag remelting type clean metal ingot mold, which is set on a platen and comprises a ingot mold body and a insulating riser installed on the ingot mold body, wherein an insulated heating and heat preservation device is set vertically in the ingot mold body, the insulated heating and heat preservation device divides the space of ingot mold body into a plurality of separate mold cavity units (12, 14) and the cavity units (12, 14) are arranged in two rows in the ingot mold body, wherein the lower portion of the insulated heating and heat preservation device is provided with a ridge integrated with the bottom mold plate of the ingot mold, the insulated heating and heat preservation device comprises a high temperature resistant plate and high temperature heating components inside the plate.
A window-cleaning robot, comprising: a body; a vacuum suction port disposed on the body; a suction detector configured to detect a vacuum suction value generated at the vacuum suction port; a light-emitting assembly disposed on the body, wherein a light-emitting area of the light-emitting assembly is configured corresponding to the vacuum suction value; and a controller, connected with the suction detector and the light-emitting assembly respectively and configured to light all or a part of the light-emitting area of the light-emitting assembly according to the vacuum suction value. a body; a vacuum suction port disposed on the body; a suction detector configured to detect a vacuum suction value generated at the vacuum suction port; a light-emitting assembly disposed on the body, wherein a light-emitting area of the light-emitting assembly is configured corresponding to the vacuum suction value; and a controller, connected with the suction detector and the light-emitting assembly respectively and configured to light all or a part of the light-emitting area of the light-emitting assembly according to the vacuum suction value.
A computer implemented method comprising the step of: a) determining a prostate cancer progression state based on a gene expression profile including the expression level of at least two phosphodiesterase 4D (PDE4D) variants selected from the group consisting of PDE4D1, PDE4D2, PDE4D4, PDE4D5, PDE4D7 and PDE4D9, wherein none of the PDE4D variants serves as a reference gene, and wherein the gene expression profile is converted into at least one prostate cancer PDE index (PDE-Index) indicative for the prostate cancer progression state, and wherein the at least one PDE-Index is selected from the following: i) PDE-Index_1: PDE4D7_exp - PDE4D5_exp ii) PDE-Index_2: MEAN(PDE4D7_exp & PDE4D5exp) iii) PDE-Index_3: (MEAN(PDE4D5_exp & PDE4D7_exp & PDE4D9_exp)) / (PDE4D4_exp) iv) PDE-Index_4: (MEAN(PDE4D5_exp & PDE4D7_exp & PDE4D9_exp)) / (PDE4D1&PDE4D2_exp) v) PDE-Index_5: (MEAN(PDE4D5_exp & PDE4D7_exp & PDE4D9_exp)). a) determining a prostate cancer progression state based on a gene expression profile including the expression level of at least two phosphodiesterase 4D (PDE4D) variants selected from the group consisting of PDE4D1, PDE4D2, PDE4D4, PDE4D5, PDE4D7 and PDE4D9, wherein none of the PDE4D variants serves as a reference gene, and wherein the gene expression profile is converted into at least one prostate cancer PDE index (PDE-Index) indicative for the prostate cancer progression state, and wherein the at least one PDE-Index is selected from the following: i) PDE-Index_1: PDE4D7_exp - PDE4D5_exp ii) PDE-Index_2: MEAN(PDE4D7_exp & PDE4D5exp) iii) PDE-Index_3: (MEAN(PDE4D5_exp & PDE4D7_exp & PDE4D9_exp)) / (PDE4D4_exp) iv) PDE-Index_4: (MEAN(PDE4D5_exp & PDE4D7_exp & PDE4D9_exp)) / (PDE4D1&PDE4D2_exp) v) PDE-Index_5: (MEAN(PDE4D5_exp & PDE4D7_exp & PDE4D9_exp)). i) PDE-Index_1: PDE4D7_exp - PDE4D5_exp ii) PDE-Index_2: MEAN(PDE4D7_exp & PDE4D5exp) iii) PDE-Index_3: (MEAN(PDE4D5_exp & PDE4D7_exp & PDE4D9_exp)) / (PDE4D4_exp) iv) PDE-Index_4: (MEAN(PDE4D5_exp & PDE4D7_exp & PDE4D9_exp)) / (PDE4D1&PDE4D2_exp) v) PDE-Index_5: (MEAN(PDE4D5_exp & PDE4D7_exp & PDE4D9_exp)).
A system having a sensor, a camera, and a control and evaluation unit for surveying and evaluating of a protected field, wherein the sensor has a plurality of light transmitters and a plurality of light receivers that are arranged in a common housing; wherein the optical axes of the light transmitters and light receivers are arranged in parallel or in fan form at different angular directions having angle spacings, whereby the protected field is formed; wherein the camera is connected to the control and evaluation unit; and wherein camera images of the camera are evaluated by the control and evaluation unit, characterized in that a plurality of switchable protected fields are provided, with the protected fields being switched over in dependence on the detected camera image, and with the field of view of the camera being directed to the protected field and at least the region of the protected field being detected by the camera.
A riser pipe assembly for detecting a level of molten metal, comprising a riser pipe including an inlet opening for molten metal in a lower region of the riser pipe, an outlet opening for molten metal in an upper region of the riser pipe, an opening in a wall of the riser pipe, and a gas line designed as an elongated hollow body, an interior space of the gas line being connectable to a gas source and a pressure measuring device, characterized by a block bearing on an outer side of the wall of the riser pipe, a continuous channel that extends between a first channel end and a second channel end passing through the block, the second channel end leading into the opening in the wall of the riser pipe, and a tension ring which surrounds the wall of the riser pipe and the block and pushes the block in the direction of the riser pipe for sealing purposes, the gas line being connected to the block in such a way that the interior space of the gas line leads into the first channel end. a riser pipe including an inlet opening for molten metal in a lower region of the riser pipe, an outlet opening for molten metal in an upper region of the riser pipe, an opening in a wall of the riser pipe, and a gas line designed as an elongated hollow body, an interior space of the gas line being connectable to a gas source and a pressure measuring device, characterized by a block bearing on an outer side of the wall of the riser pipe, a continuous channel that extends between a first channel end and a second channel end passing through the block, the second channel end leading into the opening in the wall of the riser pipe, and a tension ring which surrounds the wall of the riser pipe and the block and pushes the block in the direction of the riser pipe for sealing purposes, the gas line being connected to the block in such a way that the interior space of the gas line leads into the first channel end.
A cable-type secondary battery having a horizontal cross section of a predetermined shape and extending longitudinally, comprising: an inner electrode having an inner current collector and an inner electrode active material layer surrounding the outer surface of the inner current collector; a separation layer surrounding the outer surface of the inner electrode to prevent a short circuit between electrodes; and an outer electrode surrounding the outer surface of the separation layer and having an outer electrode active material layer and an open-structured outer current collector, wherein the open-structured outer current collector is in the form of a wound wire or a wound sheet. an inner electrode having an inner current collector and an inner electrode active material layer surrounding the outer surface of the inner current collector; a separation layer surrounding the outer surface of the inner electrode to prevent a short circuit between electrodes; and an outer electrode surrounding the outer surface of the separation layer and having an outer electrode active material layer and an open-structured outer current collector, wherein the open-structured outer current collector is in the form of a wound wire or a wound sheet.
A microfibrous cellulose aggregate comprising: microfibrous cellulose having an average fiber width of 2 nm to 50 nm; and a liquid compound composed of at least one of water or an organic solvent; a content of the microfibrous cellulose being from 6 mass% to 80 mass% per the mass of the entire microfibrous cellulose aggregate; and a content of the liquid compound being at least 15 mass% per the mass of the entire microfibrous cellulose aggregate, wherein the microfibrous cellulose aggregate further comprises a flocculant containing a salt of a polyvalent metal.
Method for manufacturing a blade for a gas turbine, in particular of an aircraft engine, wherein the blade is manufactured at least in part from ceramic fiber composite material comprising a plurality of fabric layers (10, 20, 30, 40) arranged one above the other, wherein at least one pair of fabric layers (10, 20) arranged one on top of the other comprises a first fabric layer which has at least one first interruption point between two mutually facing first edges of this fabric layer, and a second fabric layer which has at least one second interruption point that is adjacent to the first interruption point and between two mutually facing second edges of the second fabric layer and is offset from the first interruption point, wherein the first fabric layer comprises at least one first fabric cut piece having at least one of the two first edges, and the second fabric layer comprises at least one second fabric cut piece having at least one of the two second edges, wherein the method comprises the following steps: - providing the first and second fabric cut pieces (10, 20); - arranging the first and second fabric cut pieces one on top of the other in such a way that, when the first and second fabric layers are inserted into a mold (101, 102), the second interruption point is offset from the first interruption point; - sewing (60, 61) the first and second fabric cut pieces together; - inserting the fabric cut pieces which have been sewn together into the mold; and - manufacturing the ceramic fiber composite material using the fabric cut pieces which have been inserted into the mold and sewn together. - providing the first and second fabric cut pieces (10, 20); - arranging the first and second fabric cut pieces one on top of the other in such a way that, when the first and second fabric layers are inserted into a mold (101, 102), the second interruption point is offset from the first interruption point; - sewing (60, 61) the first and second fabric cut pieces together; - inserting the fabric cut pieces which have been sewn together into the mold; and - manufacturing the ceramic fiber composite material using the fabric cut pieces which have been inserted into the mold and sewn together.
A bicycle fork, particularly a bicycle fork for a racing bicycle, comprising two fork legs connected to each other by a fork bridge, and recesses (18, 62, 72) provided on the respective dropout ends of the fork legs for receiving a front wheel axis, wherein the recess has a width larger than the diameter of the front wheel axis, characterized in that the recesses (18, 62, 72) are designed in such a manner that the recesses have a respective positioning element disposed in them which is adapted to be arranged in different positions in the recess and/or is exchangeable, the positioning element partially fills the respective recess (18, 28) in a manner forming a slit-shaped, downwardly open opening and causing the front wheel axis to be inserted into the opening from below so that the front wheel axis can be fixed in different positions for changing the trail.