mhurhangee/patent-ind-claim-en huggingface dataset:
A vaporizer comprising: a battery housing ; a battery housed within the battery housing ; a cartomizer connectable to the battery housing , the cartomizer including a cartomizer body dimensioned to hold a vaporizable substance, and a heating element operable to heat the vaporizable substance; and a cutoff device connectable to the heating element operable to disrupt the heating element, wherein the cutoff device comprises a switch operable to interrupt a current flow to the heating element , characterized in that the cartomizer includes fiber batting disposed within the cartomizer body to hold the vaporizable substance, whereby the cutoff device further comprises a temperature sensor or a fluid level sensor connectable to the switch and disposed within the fiber batting in proximity to the heating element , and associated circuitry configured to turn off the heating element depending on the sensed temperature or the sensed fluid level. a battery housing ; a battery housed within the battery housing ; a cartomizer connectable to the battery housing , the cartomizer including a cartomizer body dimensioned to hold a vaporizable substance, and a heating element operable to heat the vaporizable substance; and a cutoff device connectable to the heating element operable to disrupt the heating element, wherein the cutoff device comprises a switch operable to interrupt a current flow to the heating element , a cartomizer body dimensioned to hold a vaporizable substance, and a heating element operable to heat the vaporizable substance; and a cutoff device connectable to the heating element operable to disrupt the heating element, wherein the cutoff device comprises a switch operable to interrupt a current flow to the heating element , characterized in that the cartomizer includes fiber batting disposed within the cartomizer body to hold the vaporizable substance, whereby the cutoff device further comprises a temperature sensor or a fluid level sensor connectable to the switch and disposed within the fiber batting in proximity to the heating element , and associated circuitry configured to turn off the heating element depending on the sensed temperature or the sensed fluid level.
A receiver, comprising: a receive RX front-end comprising one or more circuits having variable gains based upon gain settings, the RX front-end having radio frequency RF signals as inputs and digital signals as outputs; a power level detector coupled to receive inputs from the RX front-end and having a power level indicator as an output; and an automatic gain controller, AGC , coupled to receive the power level indicator and having the gain settings as an output to the one or more circuits within the RX front-end; wherein the AGC is configured to adjust the gain settings within a first gain range when the RF signals do not include data frames and to adjust the gain settings within a second gain range when the RF signals include data frames; and wherein the second gain range is a restricted version of the first gain range; and wherein the AGC is further configured to detect and store gain settings within a sliding time window during a time when the RF signals do not include data frames and to use the stored gain settings to determine the second gain range. a receive RX front-end comprising one or more circuits having variable gains based upon gain settings, the RX front-end having radio frequency RF signals as inputs and digital signals as outputs; a power level detector coupled to receive inputs from the RX front-end and having a power level indicator as an output; and an automatic gain controller, AGC , coupled to receive the power level indicator and having the gain settings as an output to the one or more circuits within the RX front-end; wherein the AGC is configured to adjust the gain settings within a first gain range when the RF signals do not include data frames and to adjust the gain settings within a second gain range when the RF signals include data frames; and wherein the second gain range is a restricted version of the first gain range; and wherein the AGC is further configured to detect and store gain settings within a sliding time window during a time when the RF signals do not include data frames and to use the stored gain settings to determine the second gain range.
A method for controlling viral diseases in plants, which comprises applying to the plants at least one compound of formula (I) : wherein - R1 is a thienyl or phenyl, wherein said thienyl or phenyl may be substituted with one or more substituents independently selected from the group consisting of halogen, (C 1 -C 6 )alkyl, (C 1 -C 6 )alkylthio, ((C 1 -C 6 )alkoxy)(C 1 -C 6 )alkyl, ((C 1 -C 6 )alkylthio)(C 1 -C 6 )alkyl and phenyl ; and - R2 is a phenyl which may be substituted with one or more substituents independently selected from the group consisting of halogen, (C 1 -C 6 )alkyl and (C 1 -C 6 )alkoxy. - R1 is a thienyl or phenyl, wherein said thienyl or phenyl may be substituted with one or more substituents independently selected from the group consisting of halogen, (C 1 -C 6 )alkyl, (C 1 -C 6 )alkylthio, ((C 1 -C 6 )alkoxy)(C 1 -C 6 )alkyl, ((C 1 -C 6 )alkylthio)(C 1 -C 6 )alkyl and phenyl ; and - R2 is a phenyl which may be substituted with one or more substituents independently selected from the group consisting of halogen, (C 1 -C 6 )alkyl and (C 1 -C 6 )alkoxy.
A cellulosic material comprising a cellulose fiber having grafted polymer chains composed of at least one monoethylenically unsaturated acid group-containing monomer, wherein one or more of said cellulose fiber having said grafted polymer chains are intra-fiber crosslinked, wherein the grafted polymer chains are grafted to the cellulose backbone, and wherein for a given in-plane radial permeability ("IPRP") value y (in cm 2 /MPa sec) (as described in the description) from 1000 to 7700, the medium absorption pressure ("MAP") value (as described in the description) of the material (in cm H 2 O) is within ± 30% of the value of x in the formula y = mx z ; wherein m is from 600 to 1200, and wherein z is from -0.590 to -0.515 wherein the parameters are measured as defined in the description.
An isolated antibody that binds to human HLA-G, wherein the antibody comprises A) (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:1; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:2; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:3; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:4; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:5; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:6; or B) (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:9; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:10; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:11; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:12; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:13; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:14. A) (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:1; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:2; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:3; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:4; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:5; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:6; or B) (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:9; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:10; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:11; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:12; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:13; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:14.
A hand-powered grease gun to inject grease into at least one operating aperture of an operating unit having a cylindrical main body , which has a chamber for a grease supply in its interior, a handle and an axially displaceable ejection piston on its control side , as well as a replaceable adapter on its operating side having at least one capillary tube , which is connected to the grease supply via a channel , wherein various adapters adapted to different operating units are provided, characterized in that for simultaneous filling of n>1 operating apertures the adapter comprises n>1 capillary tubes , which are arranged congruently to the n>1 operating apertures and have a diameter smaller than the diameter of the operating apertures , and n>1 channels and is constructed in two parts consisting of an adapter base , having the capillary tubes and the channels , and an adapter head with n>1 feedthroughs , which are arranged congruently to the n>1 capillary tubes , wherein the adapter base is arranged in the adapter head so as to be axially displaceable with the interposition of a spring .
An acellular dermal matrix comprising a solid, flexible sheet which is provided with a multiplicity of through-openings , the openings have an elongated shape in at least one direction, in particular form slits , and are distributed in columns, characterized in that the openings are arranged on the sheet in a localized area forming an ovoid surface, said localized area provided with the openings comprising spaced solid strips which extend in the longitudinal direction of the ovoid surface and which are wider than the solid spaces separating the openings.
A method for wireless communication performed by a user equipment, UE , the method comprising: receiving , from a serving cell that is a special cell, a bandwidth part, BWP, configuration; configuring a plurality of uplink, UL, BWPs in the serving cell based on the BWP configuration; determining that a listen-before-talk, LBT, procedure has failed in a first UL BWP of the plurality of UL BWPs; switching from the first UL BWP to a second UL BWP of the plurality of UL BWPs after determining that the second UL BWP is configured with physical random access channel, PRACH, occasions and an LBT procedure has not failed in the second UL BWP; releasing a radio resource control, RRC, connection with the serving cell and transitioning to an RRC_IDLE state after determining that an LBT procedure has failed in each of the plurality of UL BWPs that is configured with the PRACH occasions and that a timer is not running; and indicating, by an RRC layer of the UE to an upper layer of the UE, the release of the RRC connection with a release cause `RRC connection failure' after determining that the LBT procedure has failed in each of the plurality of UL BWPs that is configured with PRACH occasions. receiving , from a serving cell that is a special cell, a bandwidth part, BWP, configuration; configuring a plurality of uplink, UL, BWPs in the serving cell based on the BWP configuration; determining that a listen-before-talk, LBT, procedure has failed in a first UL BWP of the plurality of UL BWPs; switching from the first UL BWP to a second UL BWP of the plurality of UL BWPs after determining that the second UL BWP is configured with physical random access channel, PRACH, occasions and an LBT procedure has not failed in the second UL BWP; releasing a radio resource control, RRC, connection with the serving cell and transitioning to an RRC_IDLE state after determining that an LBT procedure has failed in each of the plurality of UL BWPs that is configured with the PRACH occasions and that a timer is not running; and indicating, by an RRC layer of the UE to an upper layer of the UE, the release of the RRC connection with a release cause `RRC connection failure' after determining that the LBT procedure has failed in each of the plurality of UL BWPs that is configured with PRACH occasions.
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: transmitting (S1101) uplink data with a buffer status reporting, BSR, of which a buffer size is set to zero for indicating that the uplink data is last transmitted data; receiving (S1103) uplink grant for new transmission indicating an acknowledgement, ACK, to the last transmitted data in response to the BSR set to zero, after the BSR is transmitted; and even if there is a data available for transmission: discarding (S1105) the received uplink grant for the new transmission, wherein the UE does not perform uplink transmission by using the received UL grant; and performing a BSR procedure for the data available for transmission. transmitting (S1101) uplink data with a buffer status reporting, BSR, of which a buffer size is set to zero for indicating that the uplink data is last transmitted data; receiving (S1103) uplink grant for new transmission indicating an acknowledgement, ACK, to the last transmitted data in response to the BSR set to zero, after the BSR is transmitted; and even if there is a data available for transmission: discarding (S1105) the received uplink grant for the new transmission, wherein the UE does not perform uplink transmission by using the received UL grant; and performing a BSR procedure for the data available for transmission. discarding (S1105) the received uplink grant for the new transmission, wherein the UE does not perform uplink transmission by using the received UL grant; and performing a BSR procedure for the data available for transmission.
Apparatus for braking a vehicle (F), - with a main air reservoir line (HB) and a main air line (HL), - with a brake control facility , - with a reserve pressure vessel of a supply compressed air facility (4; 4,6,19), which reserve pressure vessel is connected to the main air reservoir line (HB) via a non-return valve and to at least one brake actuator via the brake control facility , and - with a spring mechanism control facility with a pressure control means , - wherein the pressure control means is configured, in a towing operation mode, in which the vehicle (F) can be towed as a car, to control a towing operation spring mechanism release pressure (pFSa) for at least one spring-loaded brake actuator of a spring-loaded brake of the vehicle as a function of the pressure (pHL) in the main air line (HL) of the vehicle (F), - wherein for the control of the towing operation spring mechanism release pressure (pFSa) that is dependent upon the pressure (pHL) in the main air line (HL) of the vehicle (F), a control facility (S1) of the pressure control means is configured to connect a first section (L15) of a towing operation compressed air path (L15, L16), as a function of the pressure (pHL) in the main air line (HL), either to a supply path (L14) fed by the supply compressed air facility (4; 4,6,19) or to an outlet (AL1) to the outside, and - wherein the pressure control means is configured to also control the towing operation spring mechanism release pressure (pFSa) as a function of a vehicle-related speed signal (Sv;Sn). - with a main air reservoir line (HB) and a main air line (HL), - with a brake control facility , - with a reserve pressure vessel of a supply compressed air facility (4; 4,6,19), which reserve pressure vessel is connected to the main air reservoir line (HB) via a non-return valve and to at least one brake actuator via the brake control facility , and - with a spring mechanism control facility with a pressure control means , - wherein the pressure control means is configured, in a towing operation mode, in which the vehicle (F) can be towed as a car, to control a towing operation spring mechanism release pressure (pFSa) for at least one spring-loaded brake actuator of a spring-loaded brake of the vehicle as a function of the pressure (pHL) in the main air line (HL) of the vehicle (F), - wherein for the control of the towing operation spring mechanism release pressure (pFSa) that is dependent upon the pressure (pHL) in the main air line (HL) of the vehicle (F), a control facility (S1) of the pressure control means is configured to connect a first section (L15) of a towing operation compressed air path (L15, L16), as a function of the pressure (pHL) in the main air line (HL), either to a supply path (L14) fed by the supply compressed air facility (4; 4,6,19) or to an outlet (AL1) to the outside, and - wherein the pressure control means is configured to also control the towing operation spring mechanism release pressure (pFSa) as a function of a vehicle-related speed signal (Sv;Sn).
Method for the maintenance of a first wind energy installation from a group of wind energy installations comprising the following steps: a. identifying a future maintenance time period in which a boost power of the group of wind energy installations is greater than a prescribed threshold value, wherein the boost power results from a wind speed predicted for the future maintenance time period , said wind speed being greater than a rated wind speed ; b. reducing the power of the first wind energy installation after the start of the maintenance time period and drawing a boost power from a plurality of wind energy installations from the group of wind energy installations ; c. carrying out a maintenance process at the first wind energy installation . a. identifying a future maintenance time period in which a boost power of the group of wind energy installations is greater than a prescribed threshold value, wherein the boost power results from a wind speed predicted for the future maintenance time period , said wind speed being greater than a rated wind speed ; b. reducing the power of the first wind energy installation after the start of the maintenance time period and drawing a boost power from a plurality of wind energy installations from the group of wind energy installations ; c. carrying out a maintenance process at the first wind energy installation .
Disc brake for a commercial vehicle with a pneumatic brake cylinder , a brake disc, a brake caliper , a brake application device and with brake pads , wherein the brake caliper is configured to engage over the brake disc and the brake application device , which can be actuated by the brake cylinder , is arranged in the brake caliper , by means of which the brake linings can be pressed against the brake disc on both sides during braking, an extendable and retractable piston rod of the brake cylinder being in engagement with the brake application device , and the brake caliper being detachably fastened to the brake cylinder by means of a fastening device , characterized in that the fastening device comprises at least one screw with a screw head , a screw shank and an external thread formed on the screw shank and at least one bore formed in or on the brake cylinder with an internal thread, into which the screw shank is screwed with the external thread, the screw head being locked on a counter surface of the brake caliper .
An arrangement applicable to 4.5G or 5G base station testing, wherein the arrangement comprises - an antenna arrangement comprising a plurality of antenna elements (11-15, 20, 33) in a planar arrangement or close to a planar arrangement where a height of an antenna element (11-15, 20, 33) can be individually tuned in view of other antenna elements, - a test system processor controlling the amplitude and phase of the plurality of antenna elements (11-15, 20, 33), and - the plurality of antenna elements (11-15, 20, 33) are placed in substantially symmetrical fashion in view of a center spot of the antenna arrangement or in view to a center line splitting the antenna arrangement in half, wherein - the test system processor is configured to divide the plurality of the antenna elements (11-15, 20, 33) into sub-arrays, where the sub-arrays locate in bands surrounding one another with a substantially mutual center spot, the antenna elements (11-15, 20, 33) in a single sub-array forming a substantially symmetrical arrangement in view of a center spot or a center line, wherein - the test system processor is configured to control all antenna elements (11-15, 20, 33) in the same sub-array with a predetermined amplitude and phase, and - the test system processor is configured to switch on and control dedicated sub-arrays among the whole antenna arrangement, and to switch the rest of the sub-arrays off, applied in a predetermined use frequency, enabling reswitching of the sub-arrays on or off in a given time instant during wideband testing of a 4.5G or 5G base station. - an antenna arrangement comprising a plurality of antenna elements (11-15, 20, 33) in a planar arrangement or close to a planar arrangement where a height of an antenna element (11-15, 20, 33) can be individually tuned in view of other antenna elements, - a test system processor controlling the amplitude and phase of the plurality of antenna elements (11-15, 20, 33), and - the plurality of antenna elements (11-15, 20, 33) are placed in substantially symmetrical fashion in view of a center spot of the antenna arrangement or in view to a center line splitting the antenna arrangement in half, wherein - the test system processor is configured to divide the plurality of the antenna elements (11-15, 20, 33) into sub-arrays, where the sub-arrays locate in bands surrounding one another with a substantially mutual center spot, the antenna elements (11-15, 20, 33) in a single sub-array forming a substantially symmetrical arrangement in view of a center spot or a center line, wherein - the test system processor is configured to control all antenna elements (11-15, 20, 33) in the same sub-array with a predetermined amplitude and phase, and - the test system processor is configured to switch on and control dedicated sub-arrays among the whole antenna arrangement, and to switch the rest of the sub-arrays off, applied in a predetermined use frequency, enabling reswitching of the sub-arrays on or off in a given time instant during wideband testing of a 4.5G or 5G base station.