mhurhangee/ep-ind-claims huggingface dataset:
A system for removable attachment of an electrode to an inductively coupled plasma source, comprising: an inductively coupled plasma source (100, 200, 300, 400, 500, 600) having a reaction chamber (102, 202, 302, 402, 502, 602); the reaction chamber having a reaction chamber attaching portion; and a source electrode (106, 206, 306, 406, 506, 606); characterized by an interface layer (122, 222, 322, 422, 522, 622) attached to the reaction chamber; a mounting ring (104, 204, 304, 404, 504) affixed to the interface layer; and the source electrode being attached to the mounting ring; wherein the combination of the interface layer, mounting ring and source electrode forms a heat conductive seal between the reaction chamber attaching portion and the source electrode. an inductively coupled plasma source (100, 200, 300, 400, 500, 600) having a reaction chamber (102, 202, 302, 402, 502, 602); the reaction chamber having a reaction chamber attaching portion; and a source electrode (106, 206, 306, 406, 506, 606); characterized by an interface layer (122, 222, 322, 422, 522, 622) attached to the reaction chamber; a mounting ring (104, 204, 304, 404, 504) affixed to the interface layer; and the source electrode being attached to the mounting ring; wherein the combination of the interface layer, mounting ring and source electrode forms a heat conductive seal between the reaction chamber attaching portion and the source electrode.
A retaining pin (100; 200), comprising: a retaining flange (120; 220) comprising a flange body (125; 225) having a top surface and a first end opposite a second end; an anti-rotation void (127; 227) defining a void through the flange body (125; 225) proximate the second end, wherein the anti-rotation void (127; 227) comprises an opening (128; 228) on an outer edge of the retaining flange (120; 220); a first arm (130; 230) defining a first circumferential edge of the anti-rotation void (127; 227) proximate the second end, the first arm (130; 230) comprising a first finger (135; 235) extending in a direction away from the top surface of the flange body (125; 225) proximate the opening (128; 228); a second arm (140; 240) defining a second circumferential edge of the anti-rotation void (127; 227) proximate the first end, the second arm (140; 240) comprising a second finger (145; 245) extending in the first direction away from the top surface of the flange body (125; 225) proximate the opening (128; 228); and a pin shaft coupled to the first end of the flange body (125; 225). a retaining flange (120; 220) comprising a flange body (125; 225) having a top surface and a first end opposite a second end; an anti-rotation void (127; 227) defining a void through the flange body (125; 225) proximate the second end, wherein the anti-rotation void (127; 227) comprises an opening (128; 228) on an outer edge of the retaining flange (120; 220); a first arm (130; 230) defining a first circumferential edge of the anti-rotation void (127; 227) proximate the second end, the first arm (130; 230) comprising a first finger (135; 235) extending in a direction away from the top surface of the flange body (125; 225) proximate the opening (128; 228); a second arm (140; 240) defining a second circumferential edge of the anti-rotation void (127; 227) proximate the first end, the second arm (140; 240) comprising a second finger (145; 245) extending in the first direction away from the top surface of the flange body (125; 225) proximate the opening (128; 228); and a pin shaft coupled to the first end of the flange body (125; 225).
A method of controlling power transmission in a power transmitter, the method comprising the steps of: receiving, from at least one power receiver, a minimum voltage, a maximum voltage, a reference voltage that is between the minimum voltage and the maximum voltage, and a demanded voltage required by the at least one power receiver, wherein the minimum voltage and the maximum voltage are receivable at the at least one power receiver; receiving, from the at least one power receiver, a report about a power reception condition, wherein the report includes a measured output voltage of the at least one power receiver during power transmission from the power transmitter; determining whether the measured voltage is between the minimum voltage and the reference voltage; and adjusting and supplying transmission power based on whether the measured voltage is between the minimum voltage and the reference voltage. receiving, from at least one power receiver, a minimum voltage, a maximum voltage, a reference voltage that is between the minimum voltage and the maximum voltage, and a demanded voltage required by the at least one power receiver, wherein the minimum voltage and the maximum voltage are receivable at the at least one power receiver; receiving, from the at least one power receiver, a report about a power reception condition, wherein the report includes a measured output voltage of the at least one power receiver during power transmission from the power transmitter; determining whether the measured voltage is between the minimum voltage and the reference voltage; and adjusting and supplying transmission power based on whether the measured voltage is between the minimum voltage and the reference voltage.
An apparatus for the separation of triphasic mixture oil-water-gas, comprising a main body comprising a substantially cylindrical, vertical tank, having an inlet of the mixture oil-water-gas to be treated and an outlet for water, located in a lower part of said tank; at least an outlet for the gas emission in an upper part of said tank; and at least an outlet for the oil in an intermediate part between said upper part and said lower part, said apparatus further comprising a duct being coaxially positioned within said tank in said intermediate part, having an opened bottom base towards said lower part and being opened in the upper part, and having substantially cylindrical form and a smaller diameter than that of said tank so as to create an annular interspace with said tank in fluid communication with both said upper part and said lower part and with said outlet, characterized in that said inlet of the mixture to be separated comprises a first horizontal part and a second vertical part having a final portion of greater diameter with respect to the part, upperly closed by means of a flat wall and lowerly provided with an annular opening and with at least a series of holes on the surface, so as to allow the gas emission in radial direction in said upper part of the tank, and the outlet of the mixture oil-water through said annular opening inside said duct.
A method of stamping a sheet metal component, comprising: forming a steel sheet in a stamping press to include an indentation extending from a first surface of the sheet toward a second opposite surface of the sheet and extending about a periphery of the first surface; and separating a first portion of the sheet from a second portion of the sheet in a trimming press, wherein the separating occurs by shearing through the remaining sheet material located at the indentation previously formed, wherein the forming step includes defining the indentation to have a cross section including angled, substantially planar surfaces (66, 68), characterized in that a first angled surface of the angled surfaces extends at forty-five degrees to a line perpendicular to the first surface, wherein a second angled surface of the angled surfaces extends at an angle from the line perpendicular to the first surface ranging from forty-five to sixty degrees. forming a steel sheet in a stamping press to include an indentation extending from a first surface of the sheet toward a second opposite surface of the sheet and extending about a periphery of the first surface; and separating a first portion of the sheet from a second portion of the sheet in a trimming press, wherein the separating occurs by shearing through the remaining sheet material located at the indentation previously formed, wherein the forming step includes defining the indentation to have a cross section including angled, substantially planar surfaces (66, 68), characterized in that a first angled surface of the angled surfaces extends at forty-five degrees to a line perpendicular to the first surface, wherein a second angled surface of the angled surfaces extends at an angle from the line perpendicular to the first surface ranging from forty-five to sixty degrees.
A material, which is a positive electrode active material comprising positive electrode active material primary particles which (i) have an olivine structure, (ii) are represented by LiMn 1- x - y Fe x M y PO 4, wherein 0 < x ≤ 0.5, 0 ≤ y ≤ 0.2, and M is at least one of Mg, Ni, Co, Sn, and Nb, (iii) satisfy the formula β < α with 0.3 ≤ α ≤ 0.5 and 0 ≤ β ≤ 0.3, wherein α is the Fe ratio in LiMn 1-α- y Fe α M y PO 4 representing the composition of the surface of the particles, measured at a range of 1-10 nm apart from the from the surface of the cross section of a particle, and β is the Fe ratio in LiMn 1-β- y Fe β M y PO 4 representing the composition of the central portion of the particles, measured at a range of 1-10 nm apart from the center of gravity of the cross section of a particle, and (iv) have an average diameter of 0.01 - 1 μm, wherein a carbon-containing material is adhered to at least a part of the surface of the particles. (i) have an olivine structure, (ii) are represented by LiMn 1- x - y Fe x M y PO 4, wherein 0 < x ≤ 0.5, 0 ≤ y ≤ 0.2, and M is at least one of Mg, Ni, Co, Sn, and Nb, (iii) satisfy the formula β < α with 0.3 ≤ α ≤ 0.5 and 0 ≤ β ≤ 0.3, wherein α is the Fe ratio in LiMn 1-α- y Fe α M y PO 4 representing the composition of the surface of the particles, measured at a range of 1-10 nm apart from the from the surface of the cross section of a particle, and β is the Fe ratio in LiMn 1-β- y Fe β M y PO 4 representing the composition of the central portion of the particles, measured at a range of 1-10 nm apart from the center of gravity of the cross section of a particle, and (iv) have an average diameter of 0.01 - 1 μm,
A composition, comprising: one or more poly(biphenylether sulfone)s and a plurality of microspheres dispersed in the poly(biphenylethersulfone)s, wherein the poly(biphenylether sulfone)s comprise at least 50 % by weight based on the weight of the poly(biphenylether sulfone)s of recurring units consisting of at least one optionally substituted p-biphenylene unit, at least one ether unit and a sulfone unit. one or more poly(biphenylether sulfone)s and a plurality of microspheres dispersed in the poly(biphenylethersulfone)s, wherein the poly(biphenylether sulfone)s comprise at least 50 % by weight based on the weight of the poly(biphenylether sulfone)s of recurring units consisting of at least one optionally substituted p-biphenylene unit, at least one ether unit and a sulfone unit.
A process for the preparation of self-cleaning wash-resistant, air permeable, superhydrophobie, oleophobic and self-cleaning cotton textiles, which includes the following steps: - modifying the cotton fabrics in advance with a deposition of pre-prepared first type of spherical SiO 2 particles, wherein the modification is carried out using aqueous/alcoholic dispersions of spherical SiO 2 particles 200 - 1000 nm in size; - applying a second type of spherical SiO 2 particles by an in-situ sol-gel method, wherein the second type of spherical SiO 2 particles is grown in-situ on the surface of textile fibres from a colloidal nucleus dispersion during which the in-situ formation of spherical SiO 2 particles of the second step with a size between 50 and 200 nm occurs and wherein the whole surface of the textile is covered with the same bi-hierarchical roughness through the formation of a thin porous coating, which enables the chemical bonding of the first type of spherical SiO 2 particles, deposited in the first step, to the surface of cotton fabrics; - the rough cotton surface is further consolidated by application of a sol-gel coating prepared from hydrophobic and oleophobic silanes. - modifying the cotton fabrics in advance with a deposition of pre-prepared first type of spherical SiO 2 particles, wherein the modification is carried out using aqueous/alcoholic dispersions of spherical SiO 2 particles 200 - 1000 nm in size; - applying a second type of spherical SiO 2 particles by an in-situ sol-gel method, wherein the second type of spherical SiO 2 particles is grown in-situ on the surface of textile fibres from a colloidal nucleus dispersion during which the in-situ formation of spherical SiO 2 particles of the second step with a size between 50 and 200 nm occurs and wherein the whole surface of the textile is covered with the same bi-hierarchical roughness through the formation of a thin porous coating, which enables the chemical bonding of the first type of spherical SiO 2 particles, deposited in the first step, to the surface of cotton fabrics; - the rough cotton surface is further consolidated by application of a sol-gel coating prepared from hydrophobic and oleophobic silanes.
A method of dynamically allocating requisite resources for performing antenna functions (EFM i) in a multi-role or multi-function system comprising an antenna system and operable to perform one or more RADAR functions, and/or one or more communication functions, and/or one or more electronic-war functions, and/or other similar antenna functions; the method comprising: • determining whether the antenna functions (EFM i) are completely performable in a frame interval (t F) based on a time-sharing resource allocation procedure; • if not, allocating the requisite resources for performing the antenna functions (EFM i) during the frame interval (t F), based on a time-sharing resource allocation procedure, an antenna-sharing resource allocation procedure, according to which one or more antenna aperture or sub-aperture areas are allocated to each antenna function (EFM i), and a frequency-sharing resource allocation procedure, according to which one or more frequencies are allocated to each antenna aperture or sub-aperture area; and • time scheduling performance of the antenna functions (EFM i) based on the allocated resources. • determining whether the antenna functions (EFM i) are completely performable in a frame interval (t F) based on a time-sharing resource allocation procedure; • if not, allocating the requisite resources for performing the antenna functions (EFM i) during the frame interval (t F), based on a time-sharing resource allocation procedure, an antenna-sharing resource allocation procedure, according to which one or more antenna aperture or sub-aperture areas are allocated to each antenna function (EFM i), and a frequency-sharing resource allocation procedure, according to which one or more frequencies are allocated to each antenna aperture or sub-aperture area; and • time scheduling performance of the antenna functions (EFM i) based on the allocated resources.
A polyglucosamine-arginine (PAAG) of the Formula: for use in a method of treatment of dysbiosis wherein: n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, and at least 2% of R 1 substituents are n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, and at least 2% of R 1 substituents are
A method for manufacturing a component of a refrigerator and/or freezer, wherein the component is of multilayer construction and is manufactured in that at least one layer, preferably several or all layers of the component are introduced into a mold, preferably into one and the same mold, and subsequently are cured, and said layers consist of different materials, wherein the component is manufactured with at least three layers which preferably directly are in contact with each other, wherein the first layer consists of polyurea or includes the same, the second layer consists of compact polyurethane or includes the same, and the third layer consists of polyurethane foam or includes the same.
A method for enrolling nodes into an ad hoc network associated with a multi-roomed structure, each node comprising a communication hub configured to communicate with the ad hoc network using room-limited communications and communication media configured such that it is not limited by barriers, the method characterized by comprising: transmitting by a first node in the ad hoc network a room-limited communication and a communication medium configured such that it is not limited by barriers wherein the first node is coupled to a wall of a room in the multi-roomed structure; determining at a second node in the ad hoc network whether the room-limited communication and the communication medium configured such that it is not limited by barriers were received; when the first room-limited communication and the communication medium configured such that it is not limited by barriers were received, segmenting the second node into the room associated with the first node, wherein the segmentation is stored in a room list in a database. transmitting by a first node in the ad hoc network a room-limited communication and a communication medium configured such that it is not limited by barriers wherein the first node is coupled to a wall of a room in the multi-roomed structure; determining at a second node in the ad hoc network whether the room-limited communication and the communication medium configured such that it is not limited by barriers were received; when the first room-limited communication and the communication medium configured such that it is not limited by barriers were received, segmenting the second node into the room associated with the first node, wherein the segmentation is stored in a room list in a database.
Method of controlling a hearing instrument comprising at least one hearing device (L, R), the method comprising the steps of: - receiving sound information with at least a first transducer and a second transducer; - processing said sound information so as to extract at least one characteristic feature of the sound information; - determining a type of acoustic environment selected from a plurality of predefined classes of acoustic environment based on the at least one extracted characteristic feature; - adjusting sound processing parameters based on the determined type of acoustic environment, the sound processing parameters defining an input/output behavior of the at least one hearing device; characterised in that said at least one characteristic feature comprises a complex coherence calculated based on the sound information received by the first transducer and the second transducer. - receiving sound information with at least a first transducer and a second transducer; - processing said sound information so as to extract at least one characteristic feature of the sound information; - determining a type of acoustic environment selected from a plurality of predefined classes of acoustic environment based on the at least one extracted characteristic feature; - adjusting sound processing parameters based on the determined type of acoustic environment, the sound processing parameters defining an input/output behavior of the at least one hearing device;
An agent for use in preventing or treating eye diseases, which comprises a compound represented by following Chemical Formula A or a pharmaceutically acceptable salt: wherein the eye diseases include at least one of intraocular pressure elevation and glaucoma, and wherein the agent is orally administered. wherein the eye diseases include at least one of intraocular pressure elevation and glaucoma, and wherein the agent is orally administered.
A handover method of a mobile station, MS, (101, 201) in a wireless communication system, the method comprising: receiving, from a serving base station, BS, (103, 203), a message comprising a dedicated code allocated to the MS by a target BS (105, 205); transmitting, to the serving BS (103, 203), a request for bandwidth for data to be transmitted in an uplink before performing a network re-entry procedure to the target BS (105, 205) for the handover; transmitting, to the target BS (105, 205), the dedicated code for the network re-entry; receiving, from the target BS (105, 205), resource allocation information on a resource allocated based on the request for bandwidth for the data; and transmitting, to the target BS (105, 205), the data using the resource allocated by the target BS. receiving, from a serving base station, BS, (103, 203), a message comprising a dedicated code allocated to the MS by a target BS (105, 205); transmitting, to the serving BS (103, 203), a request for bandwidth for data to be transmitted in an uplink before performing a network re-entry procedure to the target BS (105, 205) for the handover; transmitting, to the target BS (105, 205), the dedicated code for the network re-entry; receiving, from the target BS (105, 205), resource allocation information on a resource allocated based on the request for bandwidth for the data; and transmitting, to the target BS (105, 205), the data using the resource allocated by the target BS.
A method for performing, by a first device, wireless communication, the method comprising: determining a first physical sidelink shared channel, PSSCH, resource, a second PSSCH resource and a third PSSCH resource; and transmitting, to a second device, sidelink control information, SCI, comprising information related to frequency domains of the second PSSCH resource and the third PSSCH resource, based on a physical sidelink control channel, PSCCH, related to the first PSSCH resource, wherein the information related to frequency domains comprises a resource indication value, RIV, informing the second PSSCH resource and the third PSSCH resource in frequency domain, wherein the RIV is determined based on an index of a starting subchannel of the second PSSCH resource, an index of a starting subchannel of the third PSSCH resource and a number of subchannels allocated for each of the second PSSCH resource and the third PSSCH resource, and wherein the RIV is a non-negative single integer value. determining a first physical sidelink shared channel, PSSCH, resource, a second PSSCH resource and a third PSSCH resource; and transmitting, to a second device, sidelink control information, SCI, comprising information related to frequency domains of the second PSSCH resource and the third PSSCH resource, based on a physical sidelink control channel, PSCCH, related to the first PSSCH resource, wherein the information related to frequency domains comprises a resource indication value, RIV, informing the second PSSCH resource and the third PSSCH resource in frequency domain, wherein the RIV is determined based on an index of a starting subchannel of the second PSSCH resource, an index of a starting subchannel of the third PSSCH resource and a number of subchannels allocated for each of the second PSSCH resource and the third PSSCH resource, and wherein the RIV is a non-negative single integer value.