mhurhangee/ep-ind-claims huggingface dataset:
A method of dynamically changing a mode of advertising for an electromechanical lock, the method comprising: transmitting advertisements via Bluetooth low energy, BTLE, from the electromechanical lock according to a nominal mode; and changing the nominal mode in response to a pre-set schedule, wherein changing the nominal mode in response to the pre-set schedule includes changing the nominal mode to a slower mode or a faster mode while a state of a variable of the electromechanical lock persists; wherein the state of the variable is a deadbolt status of the electromechanical lock; and characterized by overriding the pre-set schedule for a period of time in response to an event. transmitting advertisements via Bluetooth low energy, BTLE, from the electromechanical lock according to a nominal mode; and changing the nominal mode in response to a pre-set schedule, wherein changing the nominal mode in response to the pre-set schedule includes changing the nominal mode to a slower mode or a faster mode while a state of a variable of the electromechanical lock persists; wherein the state of the variable is a deadbolt status of the electromechanical lock; and characterized by overriding the pre-set schedule for a period of time in response to an event.
A tubing reel assembly comprising: a drive assembly; a swivel assembly; a reel; and a stand, wherein the drive assembly comprises a drive assembly adapter that connects the reel and the drive assembly, a drive assembly mount that connects the drive assembly and the stand, and a rotational power source, wherein the swivel assembly comprises a swivel assembly adapter that connects the reel and the swivel assembly, a swivel assembly mount that connects the swivel assembly and the stand, a bearing, and a hydraulic swivel, wherein the reel comprises recessed hubs that allow the overall width of the tubing reel assembly to be reduced, and wherein the recessed hubs are used for connecting the drive assembly to the reel and the swivel assembly to the reel, and characterized in that the drive assembly adapter further comprises at least two mount holes with mounts that are used to connect the drive assembly and the reel, and at least two alignment pins; and the drive assembly mount further comprises at least two pin holes with alignment pins to connect the drive assembly to the stand. a drive assembly; a swivel assembly; a reel; and a stand, wherein the drive assembly comprises a drive assembly adapter that connects the reel and the drive assembly, a drive assembly mount that connects the drive assembly and the stand, and a rotational power source, wherein the swivel assembly comprises a swivel assembly adapter that connects the reel and the swivel assembly, a swivel assembly mount that connects the swivel assembly and the stand, a bearing, and a hydraulic swivel, wherein the reel comprises recessed hubs that allow the overall width of the tubing reel assembly to be reduced, and wherein the recessed hubs are used for connecting the drive assembly to the reel and the swivel assembly to the reel, and characterized in that the drive assembly adapter further comprises at least two mount holes with mounts that are used to connect the drive assembly and the reel, and at least two alignment pins; and the drive assembly mount further comprises at least two pin holes with alignment pins to connect the drive assembly to the stand.
Discharge device for discharging a liquid pharmaceutical medium into or onto the body of a user, having - a reservoir for storing the medium, - a pressure generator (10; 110; 210) for pressurizing the medium, which generator is constructed as a positive displacement pump with a volume-variable pressure chamber (16; 116; 216) and a pump actuator (22, 24) by means of which it is possible to influence the pressure chamber volume, - a discharge opening (44; 144; 244) for discharging the medium into or onto the body of a user, and - an outlet valve (40; 140; 240) with a valve seat and a valve body (46; 146; 246) movable relative to the valve seat between an open position and a closed position, characterized in that - an electrical valve actuating device (52, 54; 152, 154; 252, 254) is provided by means of which a force can be applied to the valve body (46; 146; 246) by an electrical valve control current. - a reservoir for storing the medium, - a pressure generator (10; 110; 210) for pressurizing the medium, which generator is constructed as a positive displacement pump with a volume-variable pressure chamber (16; 116; 216) and a pump actuator (22, 24) by means of which it is possible to influence the pressure chamber volume, - a discharge opening (44; 144; 244) for discharging the medium into or onto the body of a user, and - an outlet valve (40; 140; 240) with a valve seat and a valve body (46; 146; 246) movable relative to the valve seat between an open position and a closed position, - an electrical valve actuating device (52, 54; 152, 154; 252, 254) is provided by means of which a force can be applied to the valve body (46; 146; 246) by an electrical valve control current.
A method for reporting channel state information, CSI, in a wireless communication system, the method performed by a terminal and comprising: receiving uplink, UL, grant downlink control information, DCI, wherein the UL grant DCI includes a CSI request field for triggering an aperiodic CSI report on a set of CSI processes, information on a modulation and coding scheme, MCS, index, and resource block information for a physical uplink shared channel, PUSCH; and transmitting uplink control information, UCI, including the aperiodic CSI report through the PUSCH based on the UL grant DCI, wherein only the UCI is transmitted with no uplink shared channel, UL-SCH, through the PUSCH, irrespective of the number of resource blocks allocated by the resource block information, when: the UL grant DCI is received in DCI format 0 and the MCS index is: 29 or the UL grant DCI is received in DCI format 4, only 1 transport block, TB, is enabled by the UL grant DCI, the MCS index for the enabled TB is 29, and the number of transmission layers based on the UL grant DCI is 1, and the number of CSI processes for which the aperiodic CSI report is triggered exceeds 5. receiving uplink, UL, grant downlink control information, DCI, wherein the UL grant DCI includes a CSI request field for triggering an aperiodic CSI report on a set of CSI processes, information on a modulation and coding scheme, MCS, index, and resource block information for a physical uplink shared channel, PUSCH; and transmitting uplink control information, UCI, including the aperiodic CSI report through the PUSCH based on the UL grant DCI, wherein only the UCI is transmitted with no uplink shared channel, UL-SCH, through the PUSCH, irrespective of the number of resource blocks allocated by the resource block information, when: the UL grant DCI is received in DCI format 0 and the MCS index is: 29 or the UL grant DCI is received in DCI format 4, only 1 transport block, TB, is enabled by the UL grant DCI, the MCS index for the enabled TB is 29, and the number of transmission layers based on the UL grant DCI is 1, and the number of CSI processes for which the aperiodic CSI report is triggered exceeds 5. the UL grant DCI is received in DCI format 0 and the MCS index is: 29 or the UL grant DCI is received in DCI format 4, only 1 transport block, TB, is enabled by the UL grant DCI, the MCS index for the enabled TB is 29, and the number of transmission layers based on the UL grant DCI is 1, and the number of CSI processes for which the aperiodic CSI report is triggered exceeds 5.
A polyolefin composition comprising a) a polyolefin base resin, b) an amount of 0.01 to 0.5 wt.-%, based on the total weight of the polyolefin composition, of at least one antioxidant having an initial oxygen induction time (OIT 190°C) of more than 35 min., determined according to the OIT test at 190 °C described herein and having a slope of the curve, when OIT 190°C, in minutes, is recorded as a function of exposure time, in minutes, in a chlorine dioxide degradation test as described herein, of at least -0.07, and c) an amount of 0.01 to 0.5 wt.-%, based on the total weight of the Polyolefin composition, of at least one antioxidant having an initial oxygen induction time (OIT 190°C) of not more than 35 min., determined according to the OIT test at 190 °C described herein and having a slope of the curve, when OIT 190°C, in minutes, is recorded as a function of exposure time, in minutes, in a chlorine dioxide degradation test as described herein, of less than -0.07, and d) an amount of 0.01 to 0.2 wt.-%, based on the total weight of the polyolefin composition of at least one antioxidant according to formula: wherein R 1, R 2, R 3, R 4 and R 5 independently are H, or non-substituted or substituted aliphatic or aromatic hydrocarbyl radicals which may comprise heteroatoms. wherein said polyolefin composition shows a resistance against water containing 10 ppm chlorine dioxide at 70 °C and at a pH of 6.8 ± 0.1 of at least 450 min., expressed as the time to reach 50% of the initial oxygen induction time at 210 °C (OIT (210°C),50%), determined according to the chlorine dioxide degradation test as described herein. a) a polyolefin base resin, b) an amount of 0.01 to 0.5 wt.-%, based on the total weight of the polyolefin composition, of at least one antioxidant having an initial oxygen induction time (OIT 190°C) of more than 35 min., determined according to the OIT test at 190 °C described herein and having a slope of the curve, when OIT 190°C, in minutes, is recorded as a function of exposure time, in minutes, in a chlorine dioxide degradation test as described herein, of at least -0.07, and c) an amount of 0.01 to 0.5 wt.-%, based on the total weight of the Polyolefin composition, of at least one antioxidant having an initial oxygen induction time (OIT 190°C) of not more than 35 min., determined according to the OIT test at 190 °C described herein and having a slope of the curve, when OIT 190°C, in minutes, is recorded as a function of exposure time, in minutes, in a chlorine dioxide degradation test as described herein, of less than -0.07, and d) an amount of 0.01 to 0.2 wt.-%, based on the total weight of the polyolefin composition of at least one antioxidant according to formula: wherein R 1, R 2, R 3, R 4 and R 5 independently are H, or non-substituted or substituted aliphatic or aromatic hydrocarbyl radicals which may comprise heteroatoms.
An orthopedic assembly comprising: a plate member having an aperture; an anchor insertable through the aperture of the plate member, the anchor having a plurality of resilient arms separated by grooves; and a locking mechanism insertable through the anchor, characterized in that the locking mechanism includes a plurality of fingers corresponding to each of the arms, each of the arms of the anchor includes a slot formed on an inner wall of the arm, and when the locking mechanism is inserted into an upper opening of the anchor each of the slots slidably receives one of the plurality of fingers during downward insertion of the locking mechanism through the anchor causing the plurality of arms to splay outwardly to thereby secure the anchor to the plate member. a plate member having an aperture; an anchor insertable through the aperture of the plate member, the anchor having a plurality of resilient arms separated by grooves; and a locking mechanism insertable through the anchor, characterized in that the locking mechanism includes a plurality of fingers corresponding to each of the arms, each of the arms of the anchor includes a slot formed on an inner wall of the arm, and when the locking mechanism is inserted into an upper opening of the anchor each of the slots slidably receives one of the plurality of fingers during downward insertion of the locking mechanism through the anchor causing the plurality of arms to splay outwardly to thereby secure the anchor to the plate member.
A method, comprising: embedding cells within an expandable material, the expandable material comprising acrylates and/or acrylamides; immobilizing target nucleic acids from the cells to the expandable material, comprising exposing the target nucleic acids to a plurality of anchor probes that immobilize the target nucleic acids at a single region of each target nucleic acid to the expandable material, wherein each of the plurality of anchor probes comprise a nucleic acid sequence complementary to at least a portion of the target nucleic acids from the cells and a portion that reacts with the expandable material; expanding the expandable material, comprising exposing the expandable material to a solution comprising water and/or to a solution hypotonic to the expandable material; exposing the expandable material to a plurality of nucleic acid probes; and determining binding of the nucleic acid probes to the immobilized target nucleic acids. embedding cells within an expandable material, the expandable material comprising acrylates and/or acrylamides; immobilizing target nucleic acids from the cells to the expandable material, comprising exposing the target nucleic acids to a plurality of anchor probes that immobilize the target nucleic acids at a single region of each target nucleic acid to the expandable material, wherein each of the plurality of anchor probes comprise a nucleic acid sequence complementary to at least a portion of the target nucleic acids from the cells and a portion that reacts with the expandable material; expanding the expandable material, comprising exposing the expandable material to a solution comprising water and/or to a solution hypotonic to the expandable material; exposing the expandable material to a plurality of nucleic acid probes; and determining binding of the nucleic acid probes to the immobilized target nucleic acids.
Plate having a thickness from 0.5 to 9 mm and a granular structure such that the degree of recrystallisation at half thickness is greater than 70% where the degree of recrystallisation is the proportion of surface on a metallographic section occupied by recrystallised grains, made from an aluminium-based alloy comprising 2.8 to 3.2% by weight Cu, 0.5 to 0.8% by weight Li, 0.1 to 0.3% by weight Ag, 0.2 to 0.7% by weight Mg, 0.2 to 0.35% by weight Mn, 0.01 to 0.15% by weight Ti, a quantity of Zn of less than 0.2% by weight, a quantity of Fe and Si of less than or equal to 0.1% by weight each, and unavoidable impurities, including zirconium, to a proportion of less than or equal to 0.05% by weight each and 0.15% by weight in total, the remainder aluminium, said plate being obtained by a method comprising casting, homogenisation, hot rolling and optionally cold rolling, solution heat treatment, quenching and aging. 2.8 to 3.2% by weight Cu, 0.5 to 0.8% by weight Li, 0.1 to 0.3% by weight Ag, 0.2 to 0.7% by weight Mg, 0.2 to 0.35% by weight Mn, 0.01 to 0.15% by weight Ti,
A method for producing a purified biodiesel from a feedstock comprising: a. removing free fatty acids from said feedstock in a free fatty acid stripping process to produce a first refined feedstock and a fatty acid distillate; b. transesterifying said refined feedstock to produce a first crude biodiesel; c. distilling said first crude biodiesel to produce the purified biodiesel and a distillation bottoms; and d. using a glycerolysis process to convert said fatty acid distillate to a second refined feedstock. a. removing free fatty acids from said feedstock in a free fatty acid stripping process to produce a first refined feedstock and a fatty acid distillate; b. transesterifying said refined feedstock to produce a first crude biodiesel; c. distilling said first crude biodiesel to produce the purified biodiesel and a distillation bottoms; and d. using a glycerolysis process to convert said fatty acid distillate to a second refined feedstock.
A radiation-curable coating composition comprising a) an amino-functional polyaspartate; b) a (cyclo) aliphatic polyisocyanate; c) a urethane acrylate; and d) a photoinitiator, wherein the urethane acrylate is essentially free from hydroxyl and isocyanate groups and the amount of the urethane acrylate comprises 30wt.%-85wt.% of the composition based on the weight of the coating composition. a) an amino-functional polyaspartate; b) a (cyclo) aliphatic polyisocyanate; c) a urethane acrylate; and d) a photoinitiator, wherein the urethane acrylate is essentially free from hydroxyl and isocyanate groups and the amount of the urethane acrylate comprises 30wt.%-85wt.% of the composition based on the weight of the coating composition.
A method of manufacturing a bearing ring for a rolling element bearing, the bearing ring (101, 301, 501) comprising ▪ a bearing race (102, 302, 502) having a surface (103, 303, 503) adapted to serve as a raceway for rolling elements of the bearing, and ▪ an overmoulded part (106, 306, 506), made of aluminium or an aluminium alloy, joined to the bearing race at a surface (104, 304) radially opposite from the raceway surface, the method comprising steps of: - producing the bearing race of the bearing ring from a through-hardening bearing grade steel according to ISO 683-17; - subjecting the bearing race to a through-hardening process; - joining the overmoulded part to the through-hardened bearing race in a moulding process, in which a net amount of heat energy transferred to the raceway surface (103, 303, 503) is insufficient to cause the temperature of the raceway surface to exceed a predetermined value, the predetermined value being a maximum temperature that the hardened raceway surface can withstand without adversely affecting raceway hardness; characterized in that the method further comprises a step of controlling the temperature of the raceway surface (103, 303, 503) during the step of moulding, such that the raceway surface temperature is kept below the predetermined value, wherein the step of controlling comprises: • providing a thermal barrier (308, 508) on the bearing race (302, 502) prior to the step of moulding, the thermal barrier being provided on a surface of the bearing race opposite from the raceway surface (303, 503). ▪ a bearing race (102, 302, 502) having a surface (103, 303, 503) adapted to serve as a raceway for rolling elements of the bearing, and ▪ an overmoulded part (106, 306, 506), made of aluminium or an aluminium alloy, joined to the bearing race at a surface (104, 304) radially opposite from the raceway surface, - producing the bearing race of the bearing ring from a through-hardening bearing grade steel according to ISO 683-17; - subjecting the bearing race to a through-hardening process; - joining the overmoulded part to the through-hardened bearing race in a moulding process, in which a net amount of heat energy transferred to the raceway surface (103, 303, 503) is insufficient to cause the temperature of the raceway surface to exceed a predetermined value, the predetermined value being a maximum temperature that the hardened raceway surface can withstand without adversely affecting raceway hardness; • providing a thermal barrier (308, 508) on the bearing race (302, 502) prior to the step of moulding, the thermal barrier being provided on a surface of the bearing race opposite from the raceway surface (303, 503).
A catalyst system for olefin polymerization comprising the product obtained by contacting (a) a solid catalyst component containing Mg, Ti, halogen and at least an electron donor compound selected from diolesters of the following formula in which R 1 -R 4 groups, equal to or different from each other, are hydrogen or C 1 -C 15 hydrocarbon groups, optionally containing a heteroatom selected from halogen, P, S, N and Si, with the proviso that R 1 and R 4 are not simultaneously hydrogen, R groups equal to or different from each other, are selected from C 1 -C 15 hydrocarbon groups which can be optionally linked to form a cycle and n is an integer from 0 to 5; (b) an alkylaluminum cocatalyst and (c) an ester formula R'OOC-(CR" 2) m -COOR' in which m is an integer from 2 to 7, the R' groups, equal to or different from each other, are C 1 -C 10 alkyl groups and the R" groups, independently, are hydrogen or C 1 -C 15 hydrocarbon groups. (b) an alkylaluminum cocatalyst and (c) an ester formula R'OOC-(CR" 2) m -COOR' in which m is an integer from 2 to 7, the R' groups, equal to or different from each other, are C 1 -C 10 alkyl groups and the R" groups, independently, are hydrogen or C 1 -C 15 hydrocarbon groups.
Method for detecting and controlling compaction when compacting a soil by means of a depth vibrator, wherein the depth vibrator has an unbalance rotationally driveable in a vibrator housing and at least one sensor (6, 12, 13, 14, 19), comprising the steps: penetrating the depth vibrator into the soil to a desired final depth (Tm); compacting the soil by the depth vibrator in compaction steps wherein, during compacting, the advance angle (φ) of the unbalance and the vibration amplitude of the depth vibrator are determined for a respectively measured depth; during a compaction step, detecting a soil stiffness profile from soil stiffness values (k) determined over time (t) on the basis of at least the advance angle (φ) and the vibration amplitude; determining a first soil stiffness value and a second soil stiffness value from the soil stiffness profile, for which it applies that a rate of increase (k'2) of the second soil stiffness value exceeds a rate of increase (k'1) of the first soil stiffness value by a defined factor; calculating a transition soil stiffness value which is between said first soil stiffness value and said second soil stiffness value; saving the transition soil stiffness value determined in the respective compaction step to the corresponding depth. penetrating the depth vibrator into the soil to a desired final depth (Tm); compacting the soil by the depth vibrator in compaction steps wherein, during compacting, the advance angle (φ) of the unbalance and the vibration amplitude of the depth vibrator are determined for a respectively measured depth; during a compaction step, detecting a soil stiffness profile from soil stiffness values (k) determined over time (t) on the basis of at least the advance angle (φ) and the vibration amplitude; determining a first soil stiffness value and a second soil stiffness value from the soil stiffness profile, for which it applies that a rate of increase (k'2) of the second soil stiffness value exceeds a rate of increase (k'1) of the first soil stiffness value by a defined factor; calculating a transition soil stiffness value which is between said first soil stiffness value and said second soil stiffness value; saving the transition soil stiffness value determined in the respective compaction step to the corresponding depth.