mhurhangee/patent-ind-claim-en huggingface dataset:
A device for soft-packaged electric core connection and signal acquisition, comprising an insulating body, an FPC and a plurality of contact elastic plates, wherein the insulating body is provided with a plurality of insertion grooves with openings facing downward, and each of the insertion grooves penetrates the left and right sides of the insulating body; the FPC is fixed on the insulating body, and the FPC has a plurality of first connecting portions; the plurality of contact elastic plates are fixed on the insulating body, and each of the contact elastic plates has a elastic contact portion and a second connecting portion that are connected to each other; the elastic contact portion is located in the corresponding insertion groove, and the second connecting portion is conductively connected to the corresponding first connecting portion.
An aircraft including a boundary layer ingestion engine , the boundary layer ingestion engine mounted to a tail of the aircraft or aft of an aircraft tail section and comprising: a gas generator ; a turbine fluidly connected to the gas generator ; a fan mechanically linked to the turbine via at least one shaft such that rotation of the turbine is translated to the fan ; an exhaust duct fluidly connected to an outlet of the turbine , wherein the exhaust duct is positioned radially inward of the fan ; and a static structural frame disposed aft of said turbine and fore of said fan , wherein the static structural frame further includes a cooling air duct connecting a radially outward pressurized cooling air source to a radially inward cooling air system . a gas generator ; a turbine fluidly connected to the gas generator ; a fan mechanically linked to the turbine via at least one shaft such that rotation of the turbine is translated to the fan ; an exhaust duct fluidly connected to an outlet of the turbine , wherein the exhaust duct is positioned radially inward of the fan ; and a static structural frame disposed aft of said turbine and fore of said fan , wherein the static structural frame further includes a cooling air duct connecting a radially outward pressurized cooling air source to a radially inward cooling air system .
Mixed oxide of sodium and transition metals having the formula : Na x [Mn a Ni b Co c ]O 2+y wherein: 0.5 ≤ x ≤ 0.9 -0.1 ≤ y ≤ 0.1 a + b + c = 1 0 < c ≤ 0.5, characterized in that : 4a + 2b + 3c = 4 - x + 2y, the mixed oxide has the P2 type structure, 0.35 ≤ a ≤ 0.55, and 0.05 ≤ b ≤ 0.25. 0.5 ≤ x ≤ 0.9 -0.1 ≤ y ≤ 0.1 a + b + c = 1 0 < c ≤ 0.5,
A power converter comprising a semiconductor substrate member , comprising: - a first region with a passive electrical component with a first electrically conductive layer pattern of an electrically conductive material and a second electrically conductive layer pattern of an electrically conductive material; wherein a trench or through-hole is formed in the semiconductor substrate member within the first region, and wherein the electrically conductive material is deposited at least on a bottom portion of the trench or on a sidewall of the through-hole and electrically connected to one or both of the first conductive layer pattern and the second conductive layer pattern ; and - a second region with an active semiconductor component embedded in the semiconductor substrate member by a semiconductor fabrication process, wherein the passive electrical component is formed and electrically connected to the active component to provide power converter functionality, characterized in that : the first electrically conductive layer pattern of an electrically conductive material and the second electrically conductive layer pattern of an electrically conductive material are deposited on respective sides , which are at respective top and bottom of the semiconductor substrate member. - a first region with a passive electrical component with a first electrically conductive layer pattern of an electrically conductive material and a second electrically conductive layer pattern of an electrically conductive material; wherein a trench or through-hole is formed in the semiconductor substrate member within the first region, and wherein the electrically conductive material is deposited at least on a bottom portion of the trench or on a sidewall of the through-hole and electrically connected to one or both of the first conductive layer pattern and the second conductive layer pattern ; and - a second region with an active semiconductor component embedded in the semiconductor substrate member by a semiconductor fabrication process, wherein the passive electrical component is formed and electrically connected to the active component to provide power converter functionality, characterized in that : the first electrically conductive layer pattern of an electrically conductive material and the second electrically conductive layer pattern of an electrically conductive material are deposited on respective sides , which are at respective top and bottom of the semiconductor substrate member. the first electrically conductive layer pattern of an electrically conductive material and the second electrically conductive layer pattern of an electrically conductive material are deposited on respective sides , which are at respective top and bottom of the semiconductor substrate member.
Trastuzumab-MCC-DM1 for use in a method of treating HER2-positive metastatic breast cancer that has not received treatment in the metastatic setting, the method comprising administering to a human patient having said breast cancer a therapeutically effective amount of trastuzumab-MCC-DM1 alone, wherein the human patient received treatment with a taxane prior to the metastatic setting, and the administration of trastuzumab-MCC-DM1 occurs ≥6 months after the prior treatment with a taxane and wherein trastuzumab-MCC-DM1 is an antibody-drug conjugate, which has the structure: wherein Tr is trastuzumab linked through linker moiety MCC to the maytansinoid drug moiety DM1, and wherein p represents the drug to antibody ratio and ranges in integer values from 1 to 8.
A driven hand-held machine tool , in particular angle grinder, comprising a housing , a drive unit, a drivable spindle to which a tool can be attached, and a spindle locking device , the spindle locking device comprising a driver arrangement capable of transmitting a drive torque (MEin) of the drive unit to the spindle by bringing the latter into engagement with an output part connected to the spindle in a rotationally fixed manner, a support arrangement fixed to the housing, and at least one clamping means , wherein the at least one clamping means is accommodated in a clamping space which is bounded radially on the outside by the driven part and radially on the inside by the support arrangement and in the circumferential direction on both sides by the driver arrangement and in which the at least one clamping means is arranged, characterized in that the at least one clamping means can be displaced within the clamping space by a relative rotation of the spindle with respect to the driver arrangement to clamp the driven member against the support arrangement, and in that the driven member comprises an outer star having, as viewed in cross-section, at least one wedge-shaped recess on its inner periphery in which the at least one clamping means can be at least partially received so that in this position the clamping means is not in contact with the outer peripheral surface of the support arrangement bounding the clamping space radially inwardly.
Method for mounting a panel within a wiring cabinet using at least one fastening element , wherein the panel has a rear surface and a front surface , and wherein the panel has a first dimension with a first end and a second end, the method comprising: - mounting the panel with at least one first mounting element located at the first end of the panel, to at least one second mounting element of the wiring cabinet , so that the first and second mounting element interact as a tilting mechanism, so that in a premounted state the panel is rotatable - attaching the panel to at least one attachment element using at least one first fastening element , so that in a completely mounted state the rear surface of the panel is in direct contact with an attachment surface of the attachment element , wherein the attachment surface has at least one opening for receiving the first fastening element , wherein the front surface of the panel has at least one opening located at the second end of the panel for receiving the first fastening element , and wherein the first fastening element in the completely mounted state retains the panel to the attachment element characterised in that the first fastening element is a snap-fastener , wherein the snap-fastener has a release mechanism for the purpose of detaching the panel from the attachment element , wherein the release mechanism is actuatable from the front surface of the panel . - mounting the panel with at least one first mounting element located at the first end of the panel, to at least one second mounting element of the wiring cabinet , so that the first and second mounting element interact as a tilting mechanism, so that in a premounted state the panel is rotatable - attaching the panel to at least one attachment element using at least one first fastening element , so that in a completely mounted state the rear surface of the panel is in direct contact with an attachment surface of the attachment element , wherein the attachment surface has at least one opening for receiving the first fastening element , wherein the front surface of the panel has at least one opening located at the second end of the panel for receiving the first fastening element , and wherein the first fastening element in the completely mounted state retains the panel to the attachment element
A method for varying an overall cofiring ratio of a combustion system , comprising: introducing a first engineered fuel and a first fossil fuel into a gasifier at a first cofiring ratio; cogasifying the first engineered fuel and the first fossil fuel to produce syngas; introducing a second engineered fuel and a second fossil fuel into a combustor at a second cofiring ratio; introducing the produced syngas into the combustor ; and cofiring the second engineered fuel , the second fossil fuel , and the produced syngas; and varying the overall cofiring ratio of combustion by varying an input characteristic of at least two of the first engineered fuel , the first fossil fuel , the second engineered fuel , and the second fossil fuel , wherein the first cofiring ratio and the second cofiring ratio are unchanged. introducing a first engineered fuel and a first fossil fuel into a gasifier at a first cofiring ratio; cogasifying the first engineered fuel and the first fossil fuel to produce syngas; introducing a second engineered fuel and a second fossil fuel into a combustor at a second cofiring ratio; introducing the produced syngas into the combustor ; and cofiring the second engineered fuel , the second fossil fuel , and the produced syngas; and varying the overall cofiring ratio of combustion by varying an input characteristic of at least two of the first engineered fuel , the first fossil fuel , the second engineered fuel , and the second fossil fuel , wherein the first cofiring ratio and the second cofiring ratio are unchanged.
A nondestructive inspection ("NDI") system, the NDI system comprising an unmanned aerial vehicle ("UAV") (105; 205; 305) and one or more NDI devices (125; 225; 325; 405): the UAV (105; 205; 305) comprising a body structure (115; 215; 315), the body structure comprising one or more support structures (120; 220; 320) which are configured to support the one or more NDI devices (125; 225; 325; 405), with the one or more NDI devices (125; 225; 325; 405) being releasable from the one or more support structures (120; 220; 320); the NDI system further comprising one or more NDI sensors integrated to the one or more NDI devices (125; 225; 325; 405); wherein the one or more NDI devices (125; 225; 325; 405) comprise a mounting mechanism that is operable to secure the one or more NDI sensors to a structure to be inspected. the UAV (105; 205; 305) comprising a body structure (115; 215; 315), the body structure comprising one or more support structures (120; 220; 320) which are configured to support the one or more NDI devices (125; 225; 325; 405), with the one or more NDI devices (125; 225; 325; 405) being releasable from the one or more support structures (120; 220; 320); the NDI system further comprising one or more NDI sensors integrated to the one or more NDI devices (125; 225; 325; 405); wherein the one or more NDI devices (125; 225; 325; 405) comprise a mounting mechanism that is operable to secure the one or more NDI sensors to a structure to be inspected.
An anti-interleukin-4-receptor (IL-4R) antibody for use in a method of treating moderate-to-severe atopic dermatitis (AD) in a patient, the method comprising administering an initial dose of the antibody followed by at least eight secondary doses of the antibody, wherein: - the initial dose is a loading dose of 300mg or 600mg, followed by the secondary doses which are maintenance doses of 300mg; - each secondary dose is administered to the patient 1 to 2 weeks after the immediately preceding dose; and - the antibody comprises an HCVR having the amino acid sequence of SEQ ID NO: 162 and an LCVR having the amino acid sequence of SEQ ID NO: 164. - the initial dose is a loading dose of 300mg or 600mg, followed by the secondary doses which are maintenance doses of 300mg; - each secondary dose is administered to the patient 1 to 2 weeks after the immediately preceding dose; and - the antibody comprises an HCVR having the amino acid sequence of SEQ ID NO: 162 and an LCVR having the amino acid sequence of SEQ ID NO: 164.
A water-in-oil emulsion cosmetic, comprising: (a) 5 to 15% by mass of a fragrance material, (b) 1.5 to 3% by mass of dimethyldistearylammonium hectorite, and, (c) a nonionic surfactant, wherein, the (c) nonionic surfactant comprises (c1) a polyether modified silicone having a C12-22 branched hydrocarbon chain in the amount of 2 to 10% by mass relative to the total weight of the cosmetic, and optionally comprises (c2) a polyether modified silicone having no alkyl chain in the amount of at most 10% by mass relative to the total weight of the cosmetic, a ratio of a total blending quantity of the component (c1) and the component (c2) relative to a blending quantity of the component (b), i.e., [((c1)+(c2))/(b)], is at least 2, wherein, a ratio of a total blending quantity of the component (c1) and the component (c2) to a blending quantity of the component (a), i.e., [((c1) + (c2))/(a)], is at least 0.8, wherein, the total blending quantity of the component (c1) and the component (c2) is at least 4% by mass relative to the total weight of the cosmetic, wherein, in a case in which the emulsion cosmetic contains the component (c2), a ratio of a blending quantity of the component (c1) to that of the component (c2), i.e., [(c1)/(c2)], is at least 0.8, and the cosmetic has a hardness of at least 6 as measured using a rheometer (11.3 φ, 3 mm penetration) at 25°C. (a) 5 to 15% by mass of a fragrance material, (b) 1.5 to 3% by mass of dimethyldistearylammonium hectorite, and, (c) a nonionic surfactant,
A method for manufacturing a spark plug including a bar-like center electrode , an insulator disposed on an outer periphery of the center electrode , a metal shell disposed on an outer periphery of the insulator , and a ground electrode with one end attached to the metal shell for forming a spark gap (G) with the center electrode, the method comprising: a preparation step (S10) of preparing a specimen including the center electrode , the insulator , the metal shell , and the ground electrode ; and an inspection step (S20, S20a) of determining whether dielectric breakdown is caused in the insulator by applying a voltage between the ground electrode and the center electrode of the prepared specimen , such that an electric discharge occurs at the specimen , characterized in that the inspection step (S20, S20a) includes a calculation step (S24, S24a) of receiving an acoustic oscillating wave generated from the discharge at the specimen upon application of the voltage to the specimen , determining a power spectrum by subjecting an electric oscillating wave signal obtained from the acoustic oscillating wave to fast Fourier transform, and then calculating an integral of a frequency range in the power spectrum, and a judgment step (S26, S26a) of judging whether the discharge is caused by dielectric breakdown of the insulator by comparing the integral value with a threshold value. a preparation step (S10) of preparing a specimen including the center electrode , the insulator , the metal shell , and the ground electrode ; and an inspection step (S20, S20a) of determining whether dielectric breakdown is caused in the insulator by applying a voltage between the ground electrode and the center electrode of the prepared specimen , such that an electric discharge occurs at the specimen , characterized in that the inspection step (S20, S20a) includes a calculation step (S24, S24a) of receiving an acoustic oscillating wave generated from the discharge at the specimen upon application of the voltage to the specimen , determining a power spectrum by subjecting an electric oscillating wave signal obtained from the acoustic oscillating wave to fast Fourier transform, and then calculating an integral of a frequency range in the power spectrum, and a judgment step (S26, S26a) of judging whether the discharge is caused by dielectric breakdown of the insulator by comparing the integral value with a threshold value.
Air conditioning device for the indoor installation in a storage, ripening or growing room , wherein the device comprises: a housing having a suction chamber and an outlet chamber , an air conveyer arranged in the housing , wherein the air conveyor is adapted to convey air from the suction chamber to the outlet chamber , a heat exchanger system arranged in the housing or below the suction chamber, at least one air outlet opening arranged at the outlet chamber , and wherein the at least one air outlet opening comprises an air nozzle , in particular at least one pivotably mounted air nozzle, characterized in that a suction opening is provided between the at least one air nozzle and the associated opening in the wall of the housing , preferably a suction gap, and/or one or more lateral inlet openings or inlet gaps are provided at the air nozzle , through which the air (E) flows from outside the air nozzle and from outside the housing into the air nozzle. a housing having a suction chamber and an outlet chamber , an air conveyer arranged in the housing , wherein the air conveyor is adapted to convey air from the suction chamber to the outlet chamber , a heat exchanger system arranged in the housing or below the suction chamber, at least one air outlet opening arranged at the outlet chamber , and wherein the at least one air outlet opening comprises an air nozzle , in particular at least one pivotably mounted air nozzle, characterized in that a suction opening is provided between the at least one air nozzle and the associated opening in the wall of the housing , preferably a suction gap, and/or one or more lateral inlet openings or inlet gaps are provided at the air nozzle , through which the air (E) flows from outside the air nozzle and from outside the housing into the air nozzle.
A modular grill and smoker apparatus having a heating source location , a first chamber defined by at least one first chamber wall and an airflow corridor defined by at least one exterior wall and coupled with the first chamber , the apparatus comprising: a lower side inlet vent coupled with the airflow corridor ; an upper outlet vent coupled with the airflow corridor , wherein, during operation of the apparatus, the first chamber is operable to cook food by retaining heat generated in the heating source location and wherein, during operation of the apparatus, the airflow corridor is defined such that air located exterior to the airflow corridor is drawn into the apparatus via the lower side inlet vent and air is emitted from the apparatus via the upper outlet vent ; a first transparent or semi-transparent panel releasably coupled to the at least one first chamber wall ; and a second transparent or semi-transparent panel releasably coupled to the at least one second chamber wall . a lower side inlet vent coupled with the airflow corridor ; an upper outlet vent coupled with the airflow corridor , wherein, during operation of the apparatus, the first chamber is operable to cook food by retaining heat generated in the heating source location and wherein, during operation of the apparatus, the airflow corridor is defined such that air located exterior to the airflow corridor is drawn into the apparatus via the lower side inlet vent and air is emitted from the apparatus via the upper outlet vent ; a first transparent or semi-transparent panel releasably coupled to the at least one first chamber wall ; and a second transparent or semi-transparent panel releasably coupled to the at least one second chamber wall .
A method for inspecting a heatsink in which a heat dissipation layer is formed on a surface of a substrate formed by casting, comprising shooting the heat dissipation layer by image pickup means in a state where residual heat transferred from the substrate to the heat dissipation layer remains and thereby acquiring image data representing a temperature distribution on a surface of the heat dissipation layer in which a temperature of an area where the heat dissipation layer is peeled off is lower than an area where the heat dissipation layer is not peeled off, the heat dissipation layer being formed by performing a film-forming process on the surface of the substrate where residual heat that is generated when the substrate is cast remains, the image pickup means being configured to receive an emission of light from molecules of the heat dissipation layer .
A method of communication at a network device over a communication medium, the method comprising: determining that the network device had control of the communication medium for one or more communication time slots; randomly selecting a back-off interval based at least in part on a back-off contention window, wherein the back-off contention window is a predetermined number of communication time slots for which the network device defers transmission before attempting to gain control of the communication medium; calculating a total back-off duration as a multiple of the back-off interval 2. based, at least in part, on a total transmit duration for which the network consecutively transmits on the communication medium and a predetermined transmit interval associated with data transmitted during the total transmit duration, wherein the total back-off duration is a total amount of time for which the network device does not contend for control of the communication medium; and initiating the back-off interval . determining that the network device had control of the communication medium for one or more communication time slots; randomly selecting a back-off interval based at least in part on a back-off contention window, wherein the back-off contention window is a predetermined number of communication time slots for which the network device defers transmission before attempting to gain control of the communication medium; calculating a total back-off duration as a multiple of the back-off interval 2. based, at least in part, on a total transmit duration for which the network consecutively transmits on the communication medium and a predetermined transmit interval associated with data transmitted during the total transmit duration, wherein the total back-off duration is a total amount of time for which the network device does not contend for control of the communication medium; and initiating the back-off interval .