mhurhangee/ep-ind-claims huggingface dataset:
Rotary evaporator having a device stand, on which a guide tower projects, having a holder on which an evaporation vessel is held so as to be pivotable about a horizontal pivot axis, and which comprises a holding part which is connected to the guide tower, is able to travel laterally on the guide tower in the longitudinal direction thereof and on which a carrying part, which can be connected to the evaporation vessel, is held so as to be pivotable about a horizontal pivot axis, characterised in that the holding part is formed as a carriage, that a spindle drive is provided in order to adjust and fix the selected pivot position, said spindle drive having an adjusting spindle with a self-locking spindle thread, that the adjusting spindle is mounted on the holding part so as to be pivotable about a horizontal pivot axis but so that it cannot be displaced in the axial direction, that the adjusting spindle cooperates with a spindle nut which is held on the carrying part so as to be pivotable about a horizontal pivot axis, that the adjusting spindle, on at least one spindle end, comprises an adjusting wheel or similar handle, that in order to position the carrying part a graduation is provided, which is disposed between the holding part and the carrying part, that the graduation has a scale which is provided on the holding part or on the carrying part and that the scale has associated therewith a measuring line or similar indicator which is disposed on the carrying part or on the holding part.
An electrode assembly for use in a dielectric barrier discharge plasma source, the electrode assembly comprising - a base metal plate; - an enamel layer on a surface of the base metal plate; - embedded electrodes embedded in the enamel layer, wherein the enamel layer comprises - a first layer of fused powdered glass on the base metal plate, the embedded electrodes lying on the first layer; - a plurality of second layers of fused powdered glass on top of each other over the first layer and the embedded electrodes. - a base metal plate; - an enamel layer on a surface of the base metal plate; - embedded electrodes embedded in the enamel layer, wherein the enamel layer comprises - a first layer of fused powdered glass on the base metal plate, the embedded electrodes lying on the first layer; - a plurality of second layers of fused powdered glass on top of each other over the first layer and the embedded electrodes.
A closing control method for a high-voltage DC circuit breaker, the high-voltage DC circuit breaker comprising: a main branch and a transfer branch connected in parallel, the main branch comprises mechanical switches and main branch valve groups connected in series, the transfer branch comprises a plurality of breaking units connected in series, each breaking unit comprises a transfer branch valve group and non-linear resistors connected in parallel; the closing control method of the high-voltage DC circuit breaker comprises closing the transfer branch, then closing the main branch, and finally breaking the transfer branch; the method characterized in that the closing of the transfer branch is in such manner that the breaking units in the transfer branch are closed group by group; in the process of closing the breaking units in the transfer branch group by group, a power transmission system is pre-charged by the non-linear resistor of the opened breaking units; and in the process of closing the breaking units in the transfer branch group by group, a number of the breaking units and a closing sequence are determined by an overvoltage level U max of the power transmission system and a maximum allowable closing time T max; after any one group of the breaking units is put into operation, an impulse voltage is not higher than twice the overvoltage level U max of the power transmission system; a total time of putting all the breaking units into operation is not more than the maximum allowable closing time T max of engineering requirements. main branch and a transfer branch connected in parallel, the main branch comprises mechanical switches and main branch valve groups connected in series, the transfer branch comprises a plurality of breaking units connected in series, each breaking unit comprises a transfer branch valve group and non-linear resistors connected in parallel; the closing control method of the high-voltage DC circuit breaker comprises closing the transfer branch, then closing the main branch, and finally breaking the transfer branch; the method characterized in that the closing of the transfer branch is in such manner that the breaking units in the transfer branch are closed group by group; in the process of closing the breaking units in the transfer branch group by group, a power transmission system is pre-charged by the non-linear resistor of the opened breaking units; and in the process of closing the breaking units in the transfer branch group by group, a number of the breaking units and a closing sequence are determined by an overvoltage level U max of the power transmission system and a maximum allowable closing time T max; after any one group of the breaking units is put into operation, an impulse voltage is not higher than twice the overvoltage level U max of the power transmission system; a total time of putting all the breaking units into operation is not more than the maximum allowable closing time T max of engineering requirements.
A transdermal nerve stimulation device for stimulating a predetermined nerve of a mammal comprising: a first waveform generator adapted to generate a first waveform having a frequency capable of stimulating a predetermined nerve of the mammal wherein the generated first waveform is itself incapable of transdermally stimulating the predetermined nerve; a second waveform generator adapted to generate a carrier waveform wherein the frequency of the second carrier waveform is greater than that of the first waveform, and the frequency of the second carrier waveform is capable of passing through skin and tissue of the mammal to reach the predetermined nerve, but is incapable of electrically stimulating the predetermined nerve; an amplitude modulation device electrically coupled to the first and second waveform generators and adapted to multiply the second carrier waveform and the first waveform to create a modulated waveform which maintains the frequency information of the first and second waveforms and thereby is capable of transdermally electrically stimulating the predetermined nerve which is the pudendal nerve; and an electrode electrically coupled to the modulation device and positioned substantially adjacent to skin of the mammal, and adapted to apply the modulated waveform thereto. a first waveform generator adapted to generate a first waveform having a frequency capable of stimulating a predetermined nerve of the mammal wherein the generated first waveform is itself incapable of transdermally stimulating the predetermined nerve; a second waveform generator adapted to generate a carrier waveform wherein the frequency of the second carrier waveform is greater than that of the first waveform, and the frequency of the second carrier waveform is capable of passing through skin and tissue of the mammal to reach the predetermined nerve, but is incapable of electrically stimulating the predetermined nerve; an amplitude modulation device electrically coupled to the first and second waveform generators and adapted to multiply the second carrier waveform and the first waveform to create a modulated waveform which maintains the frequency information of the first and second waveforms and thereby is capable of transdermally electrically stimulating the predetermined nerve which is the pudendal nerve; and an electrode electrically coupled to the modulation device and positioned substantially adjacent to skin of the mammal, and adapted to apply the modulated waveform thereto.
A system for processing a two-dimensional X-ray image comprising bone objects which at least in part overlap, the system comprising: - an input interface for accessing the X-ray image; - a processor for processing the X-ray image by: i) delineating a number of the bone objects by a contour, thereby obtaining a number of delineated bone objects (260, 262); ii) for each of the number of delineated bone objects, applying a bone suppression technique to the image to obtain respective bone image data (210, 230) individually showing the respective delineated bone object while suppressing shadows of obstructing objects; and iii) using the bone image data generated for each of the number of delineated bone objects to generate an output image (142, 240) in which the bone objects do not overlap. - an input interface for accessing the X-ray image; - a processor for processing the X-ray image by: i) delineating a number of the bone objects by a contour, thereby obtaining a number of delineated bone objects (260, 262); ii) for each of the number of delineated bone objects, applying a bone suppression technique to the image to obtain respective bone image data (210, 230) individually showing the respective delineated bone object while suppressing shadows of obstructing objects; and iii) using the bone image data generated for each of the number of delineated bone objects to generate an output image (142, 240) in which the bone objects do not overlap. i) delineating a number of the bone objects by a contour, thereby obtaining a number of delineated bone objects (260, 262); ii) for each of the number of delineated bone objects, applying a bone suppression technique to the image to obtain respective bone image data (210, 230) individually showing the respective delineated bone object while suppressing shadows of obstructing objects; and iii) using the bone image data generated for each of the number of delineated bone objects to generate an output image (142, 240) in which the bone objects do not overlap.
A container for a beverage filled in a hot fill process, comprising: a finish; a body section; and a base; the body section comprising a plurality of support columns and a plurality of body panels; wherein each of the plurality of support columns comprise a first raised mid-section and a second raised mid-section; and wherein each of the plurality of support columns is flush with a first body panel and a second body panel about a lower circumferential groove and raised about an apex of said mid-sections (290, 300); characterized in that: the first raised mid-section extends into the first body panel and the second raised mid-section extends into the second body panel; and each of the plurality of support columns is flush with the first body panel and the second body panel about an upper circumferential groove. a finish; a body section; and a base; the body section comprising a plurality of support columns and a plurality of body panels; wherein each of the plurality of support columns comprise a first raised mid-section and a second raised mid-section; and wherein each of the plurality of support columns is flush with a first body panel and a second body panel about a lower circumferential groove and raised about an apex of said mid-sections (290, 300); characterized in that: the first raised mid-section extends into the first body panel and the second raised mid-section extends into the second body panel; and each of the plurality of support columns is flush with the first body panel and the second body panel about an upper circumferential groove. the first raised mid-section extends into the first body panel and the second raised mid-section extends into the second body panel; and each of the plurality of support columns is flush with the first body panel and the second body panel about an upper circumferential groove.
A method of manufacturing a skate boot shell, the method comprising: shaping a tridimensional outer sub-shell to define a first heel portion, a first ankle portion connected to the first heel portion, and two opposed first side portions extending from the first heel and ankle portions (22a, 22b); shaping a tridimensional inner sub-shell to define a second heel portion, a second ankle portion connected to the second heel portion, and two opposed second side portions extending from the second heel and ankle portions (24a, 24b), the inner sub-shell having an outer surface complementary to an inner surface of the outer sub-shell; and bonding the shaped sub-shells together through lamination, the lamination being performed after the outer and inner sub-shells (22, 24) are shaped, the lamination being performed with the inner sub-shell in the outer sub-shell and with the outer surface of the inner sub-shell in alignment with the inner surface of the outer sub-shell, the lamination including applying one or both of heat on the sub-shells (22, 24) and pressure on one of the inner and outer sub-shells (22, 24) toward the other of the inner and outer sub-shells (22, 24), the other of the inner and outer sub-shells (22, 24) resting against a mold surface (82, 88). shaping a tridimensional outer sub-shell to define a first heel portion, a first ankle portion connected to the first heel portion, and two opposed first side portions extending from the first heel and ankle portions (22a, 22b); shaping a tridimensional inner sub-shell to define a second heel portion, a second ankle portion connected to the second heel portion, and two opposed second side portions extending from the second heel and ankle portions (24a, 24b), the inner sub-shell having an outer surface complementary to an inner surface of the outer sub-shell; and bonding the shaped sub-shells together through lamination, the lamination being performed after the outer and inner sub-shells (22, 24) are shaped, the lamination being performed with the inner sub-shell in the outer sub-shell and with the outer surface of the inner sub-shell in alignment with the inner surface of the outer sub-shell, the lamination including applying one or both of heat on the sub-shells (22, 24) and pressure on one of the inner and outer sub-shells (22, 24) toward the other of the inner and outer sub-shells (22, 24), the other of the inner and outer sub-shells (22, 24) resting against a mold surface (82, 88).
A process for removing thiocarbonylthio groups from polymer prepared by RAFT polymerisation, the process comprising: introducing into bundled flow lines or a coiled flow line of a tubular flow reactor a solution comprising the RAFT polymer in solvent; and promoting a reaction within the flow reactor that removes the thiocarbonylthio groups so as to form a solution that flows out of the reactor comprising the RAFT polymer absent the thiocarbonylthio groups. introducing into bundled flow lines or a coiled flow line of a tubular flow reactor a solution comprising the RAFT polymer in solvent; and promoting a reaction within the flow reactor that removes the thiocarbonylthio groups so as to form a solution that flows out of the reactor comprising the RAFT polymer absent the thiocarbonylthio groups.
A method for sensing the presence of a transmission signal type having a known attendant spectral characteristic and corresponding to a licensed transmission within a wireless channel in a wireless communication system prior to conducting unlicensed wireless operation on said channel, the method comprising: calculating a spectral density estimate of a signal on the wireless channel; comparing a first test value derived from the calculated spectral density estimate to a first threshold; making a preliminary determination of the presence of the transmission signal type if the first test value exceeds the first threshold; and sensing the presence of the signal type after a preliminary determination of the presence of the signal type is made by determining that an observed spectral density of a prescribed signal added to the signal prior to transmission of the signal on the wireless channel matches a model estimate of the spectral density of the prescribed signal by at least a predetermined degree. calculating a spectral density estimate of a signal on the wireless channel; comparing a first test value derived from the calculated spectral density estimate to a first threshold; making a preliminary determination of the presence of the transmission signal type if the first test value exceeds the first threshold; and sensing the presence of the signal type after a preliminary determination of the presence of the signal type is made by determining that an observed spectral density of a prescribed signal added to the signal prior to transmission of the signal on the wireless channel matches a model estimate of the spectral density of the prescribed signal by at least a predetermined degree.
: A separation device for a fluid purification device, the separation device comprising: - at least three concentric enclosures including an outermost enclosure and an innermost enclosure and defining at least two concentric cavities; - a plurality of spiral-shaped channels formed in each of the at least two concentric cavities, so that fluid can flow through said plurality of spiral-shaped channels; - a fluid inlet, for receiving fluid, located in an upper section of an outermost cavity among the at least two concentric cavities, the fluid inlet corresponding to a gas outlet; - a solids outlet, for discharging solids comprised in the fluid, located in a lower section of the separation device; and - a liquid outlet, for discharging liquid comprised in the fluid, located in an upper section of at least one inner cavity among the at least two concentric cavities, wherein the lower section of the separation device comprises a redirecting chamber located below the at least three concentric enclosures, the redirecting chamber being configured to allow the fluid to switch from a downward flow through the plurality of spiral-shaped channels of the outermost cavity, to an upward flow through the plurality of spiral-shaped channels of the at least one inner cavity. - at least three concentric enclosures including an outermost enclosure and an innermost enclosure and defining at least two concentric cavities; - a plurality of spiral-shaped channels formed in each of the at least two concentric cavities, so that fluid can flow through said plurality of spiral-shaped channels; - a fluid inlet, for receiving fluid, located in an upper section of an outermost cavity among the at least two concentric cavities, the fluid inlet corresponding to a gas outlet; - a solids outlet, for discharging solids comprised in the fluid, located in a lower section of the separation device; and - a liquid outlet, for discharging liquid comprised in the fluid, located in an upper section of at least one inner cavity among the at least two concentric cavities,
An apparatus for use at a mobile switching center server, comprising: means for determining a type of a user plane interface via which a call is to be processed, the user plane interface being an internet protocol based interface where data is transported on top of Real-Time Transport Protocol; means for indicating the type of the user plane interface in a package with a reference point value corresponding to one of Mb, A, and Nb interfaces, the package being comprised in a termination reservation message, and means for transmitting the termination reservation message to a media gateway. means for determining a type of a user plane interface via which a call is to be processed, the user plane interface being an internet protocol based interface where data is transported on top of Real-Time Transport Protocol; means for indicating the type of the user plane interface in a package with a reference point value corresponding to one of Mb, A, and Nb interfaces, the package being comprised in a termination reservation message, and means for transmitting the termination reservation message to a media gateway.
A method for controlling data transmission, wherein the method comprises: receiving, by a user equipment, UE, at least one transmission control parameter transmitted by a base station, wherein the transmission control parameter carries at least one radio bearer, RB, identifier and a parameter instruction for controlling deferred triggering, wherein the RB identifier identifies a to-be-controlled RB, and wherein the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a buffer status report, BSR, for a predetermined time when a BSR trigger condition is met, or the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a scheduling request, SR, for a predetermined time when an SR trigger condition is met, or the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a random access, RA, for a predetermined time when an RA trigger condition is met; and when the UE needs to initiate data transmission to the base station, applying (S 101), by the UE, the transmission control parameter to control data transmission. receiving, by a user equipment, UE, at least one transmission control parameter transmitted by a base station, wherein the transmission control parameter carries at least one radio bearer, RB, identifier and a parameter instruction for controlling deferred triggering, wherein the RB identifier identifies a to-be-controlled RB, and wherein the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a buffer status report, BSR, for a predetermined time when a BSR trigger condition is met, or the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a scheduling request, SR, for a predetermined time when an SR trigger condition is met, or the transmission control parameter is applied to control the to-be-controlled RB to defer triggering a random access, RA, for a predetermined time when an RA trigger condition is met; and when the UE needs to initiate data transmission to the base station, applying (S 101), by the UE, the transmission control parameter to control data transmission.
A tilting converter comprising: a container, defining a first longitudinal axis X, having a bottom; a trunnion ring, coaxial to the container and spaced apart from said container, provided with two diametrically opposite trunnion pins, defining a second axis Y orthogonal to the first axis X, adapted to allow a rotation of the converter about said second axis Y; a suspension system, connecting said container to said trunnion ring, comprising suspension elements or groups of suspension elements, said suspension elements or said groups of suspension elements being arranged along a cylindrical or truncated cone side surface, coaxial to the first axis X, wherein there are provided deformation detecting means adapted to detect in real time the deformations to which the suspension elements are subjected, and wherein said deformation detecting means comprise deformation measuring instruments applied in at least one zone of each of said suspension elements. a container, defining a first longitudinal axis X, having a bottom; a trunnion ring, coaxial to the container and spaced apart from said container, provided with two diametrically opposite trunnion pins, defining a second axis Y orthogonal to the first axis X, adapted to allow a rotation of the converter about said second axis Y; a suspension system, connecting said container to said trunnion ring, comprising suspension elements or groups of suspension elements, said suspension elements or said groups of suspension elements being arranged along a cylindrical or truncated cone side surface, coaxial to the first axis X, wherein there are provided deformation detecting means adapted to detect in real time the deformations to which the suspension elements are subjected, and wherein said deformation detecting means comprise deformation measuring instruments applied in at least one zone of each of said suspension elements.
A detecting agent composition comprising the following components by weight percentage: folic acid 0-5% folic acid complex 0-10% methylene blue 0.01-5% carbohydrate reducing agent 0.1-10% acetic acid 2-6% water 3-95%, wherein folic acid and folic acid complex are not 0% simultaneously.