mhurhangee/ep-ind-claims huggingface dataset:
Decontamination device for medical material, comprising a spraying means, a drying means and an irradiating means, said spraying means, said drying means and said irradiating means are included in one or two parts, provided along the same longitudinal axis, forming a cylindrical passage, intended to receive said medical material to be decontaminated, the device comprising a support intended to receive and hold said medical material to be decontaminated along the longitudinal axis of symmetry of said cylindrical passage, characterised in that said spraying means is mounted in rotation about said axis of symmetry and in translation parallel to said axis of symmetry in such a way that the spraying is directed towards said axis of symmetry, in that said drying means is a means capable of producing an air knife and is mounted in translation parallel to said axis of symmetry, said air knife being intended to pass through a trajectory forming an angle between 10° and 85° with said axis of symmetry, and in that said irradiating means is mounted in translation parallel to said axis of symmetry.
A process for the preparation of cyclic amides of Formula I: comprising the steps of a) Contacting a compound of Formula II with a hydroxylammonium salt, amphoteric metal oxide or amphoteric masked metal oxide and a base for in-situ preparation of corresponding compound of Formula X; b) removing water formed; and c) contacting the compound of Formula X with a rearrangement solvent and a metal salt formed insitu as a by-product during formation of the compound of Formula X to catalyse a rearrangement reaction resulting into formation of the cyclic amide Formula I; wherein n and m each are independently selected from 0, 1, 2, 3, 4, 5, 6, 7, 8 or 9 and the sum of n + m is at least 2, and the compounds of Formula I and II have substituents R 1, R 2, R 3 and R 4, where R 1, R 2, R 3 and R 4 are independently selected from hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cyclo alkenyl, aryl, aralkyl and aromatic or non aromatic heterocycle, or R 1, R 2, R 3 and R 4 can be combined together to form a substituted or unsubstituted cycloalkyl or cycloaryl moiety, including bicyclic or heterocyclic moieties. a) Contacting a compound of Formula II with a hydroxylammonium salt, amphoteric metal oxide or amphoteric masked metal oxide and a base for in-situ preparation of corresponding compound of Formula X; b) removing water formed; and c) contacting the compound of Formula X with a rearrangement solvent and a metal salt formed insitu as a by-product during formation of the compound of Formula X to catalyse a rearrangement reaction resulting into formation of the cyclic amide Formula I;
A modified conjugated diene-based polymer represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, R, R 4 and R 5 are each independently a hydrocarbon group having 1 to 20 carbon atoms; R 2 and R 3 are each independently a hydrocarbon group having 1 to 20 carbon atoms or a hydrocarbon group having 1 to 20 carbon atoms containing oxygen or nitrogen; R 2 and R 3 may be linked to each other to form an aliphatic ring having 5 to 20 carbon atoms or an aromatic ring having 6 to 20 carbon atoms; P is a modified conjugated diene-based polymer chain; X is a halogen group; A is a tertiary amine; a and b are each independently an integer of 1 to 4; and a+b≤4. R, R 4 and R 5 are each independently a hydrocarbon group having 1 to 20 carbon atoms; R 2 and R 3 are each independently a hydrocarbon group having 1 to 20 carbon atoms or a hydrocarbon group having 1 to 20 carbon atoms containing oxygen or nitrogen; R 2 and R 3 may be linked to each other to form an aliphatic ring having 5 to 20 carbon atoms or an aromatic ring having 6 to 20 carbon atoms; P is a modified conjugated diene-based polymer chain; X is a halogen group; A is a tertiary amine; a and b are each independently an integer of 1 to 4; and a+b≤4.
A sleeve-shaped or cup-shaped, elastically deformable gripping insert (10, 10.1, 10.2, 10.3, 10.4, 10.5, 10.6) for a packing tulip (100.3, 100.4, 100.5, 100.6) for gripping bottles on the head side, in particular bottles closable by a closure, comprising a rear side end, a circumferential wall with an outer side and an inner side and also a front side end facing the bottle head, characterized in that the circumferential wall of the gripping insert (10, 10.1, 10.2, 10.3, 10.4, 10.5, 10.6) has a plurality of axial weakenings in the form of grooves extending substantially axially and distributed across its circumference on its inner side, wherein a longitudinal section of the circumferential wall arranged on the rear side end of the gripping insert (10, 10.1, 10.2, 10.3, 10.4, 10.5, 10.6) has an increased wall thickness on its inner side, wherein a plurality of webs is formed on the outer side of the circumferential wall of the gripping insert (10, 10.1-10.6) extending in the axial direction and distributed across the circumference of the gripping insert (10-10.6), wherein the axial webs alternate with the weakened areas across the circumference of the griping insert (10-10.6), wherein the number of webs extending in the axial direction corresponds to the number of grooves extending substantially axially and provided on the inner side of the circumferential wall, wherein the webs and the grooves lie over each other in pairs in the radial direction, wherein, during the deformation of the gripping insert (10-10.6) when pressure is applied, the outer longitudinal edges of the grooves function to limit the deformation, by abutting one another at increasing deformation and thus preventing a further, radially inward movement of the circumferential wall of the gripping insert (10-10.6).
A nitride semiconductor light emitting device comprising: a first nitride semiconductor layer (207, 407) having a super lattice structure of AlGaN/n-GaN or AlGaN/GaN/n-GaN; an active layer formed above the first nitride semiconductor layer to emit light; a second nitride semiconductor layer formed above the active layer; and a third nitride semiconductor layer formed above the second nitride semiconductor layer, wherein the third nitride semiconductor layer is formed of an n-InGaN layer with a super grading structure in which indium content is gradually varied, and wherein the first nitride semiconductor layer (207, 407) is a first electrode contact layer and the third nitride semiconductor layer is provided as a second electrode contact layer of an n-InGaN to form a junction structure of n/p/n. a first nitride semiconductor layer (207, 407) having a super lattice structure of AlGaN/n-GaN or AlGaN/GaN/n-GaN; an active layer formed above the first nitride semiconductor layer to emit light; a second nitride semiconductor layer formed above the active layer; and a third nitride semiconductor layer formed above the second nitride semiconductor layer, wherein the third nitride semiconductor layer is formed of an n-InGaN layer with a super grading structure in which indium content is gradually varied, and wherein the first nitride semiconductor layer (207, 407) is a first electrode contact layer and the third nitride semiconductor layer is provided as a second electrode contact layer of an n-InGaN to form a junction structure of n/p/n.
A motion detection method comprising: at a receiver in a space, receiving wireless signals based on transmissions of a reference signal by a transmitter, each of the received wireless signals based on a respective transmission of the reference signal at a distinct time; determining, by operation of one or more processors, channel responses based on the received wireless signals and the reference signal, each channel response being determined based on a respective one of the received wireless signals; generating estimated received signals based on the reference signal and the channel responses; and detecting, by operation of the one or more processors, motion of an object in the space based on the channel responses and the estimated received signals, wherein the detecting comprises: determining respective quality metrics based on the estimated received signals and the received wireless signals; and in response to detecting that the quality metrics satisfy a quality criterion, detecting the motion based on the channel responses. at a receiver in a space, receiving wireless signals based on transmissions of a reference signal by a transmitter, each of the received wireless signals based on a respective transmission of the reference signal at a distinct time; determining, by operation of one or more processors, channel responses based on the received wireless signals and the reference signal, each channel response being determined based on a respective one of the received wireless signals; generating estimated received signals based on the reference signal and the channel responses; and detecting, by operation of the one or more processors, motion of an object in the space based on the channel responses and the estimated received signals, wherein the detecting comprises: determining respective quality metrics based on the estimated received signals and the received wireless signals; and in response to detecting that the quality metrics satisfy a quality criterion, detecting the motion based on the channel responses. determining respective quality metrics based on the estimated received signals and the received wireless signals; and in response to detecting that the quality metrics satisfy a quality criterion, detecting the motion based on the channel responses.
An apparatus for pyrolysing and combusting a material, the apparatus comprising: one or more crucibles (50, 51) for receiving a material to be pyrolysed and combusted therein; and one or more heating tubes disposed around the crucible(s) (50, 51), wherein the or each heating tube is configured for: receiving byproduct(s) via a conduit produced during pyrolysis and combustion of the material within the crucible(s); mixing, in a mixing chamber (110A-210A) a hydroxy gas comprising a mix of hydrogen and oxygen with the byproduct(s); and igniting the hydroxy gas, via an electronic ignition device that is electrically connected to the or each heating tube to pyrolyse and combust the mixture of the byproduct(s) and the hydroxy gas to produce processed gas from the byproduct(s). one or more crucibles (50, 51) for receiving a material to be pyrolysed and combusted therein; and one or more heating tubes disposed around the crucible(s) (50, 51), wherein the or each heating tube is configured for: receiving byproduct(s) via a conduit produced during pyrolysis and combustion of the material within the crucible(s); mixing, in a mixing chamber (110A-210A) a hydroxy gas comprising a mix of hydrogen and oxygen with the byproduct(s); and igniting the hydroxy gas, via an electronic ignition device that is electrically connected to the or each heating tube to pyrolyse and combust the mixture of the byproduct(s) and the hydroxy gas to produce processed gas from the byproduct(s). receiving byproduct(s) via a conduit produced during pyrolysis and combustion of the material within the crucible(s); mixing, in a mixing chamber (110A-210A) a hydroxy gas comprising a mix of hydrogen and oxygen with the byproduct(s); and igniting the hydroxy gas, via an electronic ignition device that is electrically connected to the or each heating tube to pyrolyse and combust the mixture of the byproduct(s) and the hydroxy gas to produce processed gas from the byproduct(s).
A battery pack, comprising: a first battery module group including one or more battery modules (20a, 20b); a second battery module group including one or more battery modules (30a, 30b), and aligned with the first battery module group; a housing accommodating the first and second battery module groups (20, 30) therein; and a guide member between the first and second battery module groups (20, 30), and adjacent to one of the battery modules of the first battery module group, wherein the guide member divides a flow path of a heat exchange medium passing through the first battery module group; characterized by the guide member including a main body portion having one surface opened to form a space portion therein, and first and second connection tubes (153, 154) respectively provided at a first side of the main body portion and a second side opposite to the first side of the main body portion. a first battery module group including one or more battery modules (20a, 20b); a second battery module group including one or more battery modules (30a, 30b), and aligned with the first battery module group; a housing accommodating the first and second battery module groups (20, 30) therein; and a guide member between the first and second battery module groups (20, 30), and adjacent to one of the battery modules of the first battery module group, wherein the guide member divides a flow path of a heat exchange medium passing through the first battery module group; a main body portion having one surface opened to form a space portion therein, and first and second connection tubes (153, 154) respectively provided at a first side of the main body portion and a second side opposite to the first side of the main body portion.
A medical image display processing method comprising the steps of: acquiring a functional image in an ASL coordinate system from a head of a subject by an ASL imaging method using an MRI device; subjecting the acquired functional image to mask processing to extract only a region of cerebral parenchyma; and displaying the resultant functional image containing only the extracted region of the cerebral parenchyma, characterized by pre-preparing a functional image of only a region of cerebral parenchyma of an able-bodied person and registering the pre-prepared functional image into a standard brain coordinate system, performing mask processing (S3, S13, S23, S34, S43, S64) for extracting only the region of the cerebral parenchyma using a mask image produced from an ASL-EPI image which is a morphological image acquired simultaneously with the functional image in the same sequence by the ASL imaging method, determining a transformation field from the ASL coordinate system to the standard brain coordinate system based on the ASL-EPI image, transforming the functional image acquired by the ASL imaging method into an image in a standard brain coordinate system using the transformation field before or after the mask processing, statistically comparing (S26, S35, S46, S65) the resultant functional image of only the region of the cerebral parenchyma in the standard brain coordinate system with the pre-prepared and registered functional image of only the region of cerebral parenchyma of the able-bodied person, and producing and displaying a perfusion weighted Z score map in the standard brain coordinate system. acquiring a functional image in an ASL coordinate system from a head of a subject by an ASL imaging method using an MRI device; subjecting the acquired functional image to mask processing to extract only a region of cerebral parenchyma; and displaying the resultant functional image containing only the extracted region of the cerebral parenchyma, characterized by pre-preparing a functional image of only a region of cerebral parenchyma of an able-bodied person and registering the pre-prepared functional image into a standard brain coordinate system, performing mask processing (S3, S13, S23, S34, S43, S64) for extracting only the region of the cerebral parenchyma using a mask image produced from an ASL-EPI image which is a morphological image acquired simultaneously with the functional image in the same sequence by the ASL imaging method, determining a transformation field from the ASL coordinate system to the standard brain coordinate system based on the ASL-EPI image, transforming the functional image acquired by the ASL imaging method into an image in a standard brain coordinate system using the transformation field before or after the mask processing, statistically comparing (S26, S35, S46, S65) the resultant functional image of only the region of the cerebral parenchyma in the standard brain coordinate system with the pre-prepared and registered functional image of only the region of cerebral parenchyma of the able-bodied person, and producing and displaying a perfusion weighted Z score map in the standard brain coordinate system.
Trampoline with a frame construction, on which a jumping bed is mounted to lie in a plane, wherein the frame construction comprises foot parts by means of which the trampoline is placed on a substrate, characterised in that the frame construction comprises a first frame, which lies in the plane of the jumping bed and which circumferentially surrounds the jumping bed, that the frame construction has a second frame arranged below the first frame and that ropes are provided for fastening the jumping bed to the frame construction, wherein the ropes are fastened at one end to the jumping bed and are deflected at the first frame so that the deflected segments of the ropes extend in the direction of the second frame at an angle of inclination with respect to the plane of the jumping bed, and that the ropes are fastened to the second frame by means of resilient elements arranged between the first and second frames.
A vapor phase growth apparatus allowing vapor phase growth of a silicon single crystal film on a main surface of a silicon single crystal substrate to proceed therein, having a reaction vessel having a gas introducing port formed on a first end side in the horizontal direction, and having a gas discharging port on a second end side in the same direction, configured as allowing a source gas for forming the silicon single crystal film to be introduced through the gas introducing port into the reaction vessel, and to flow along the main surface of the silicon single crystal substrate held in a near-horizontally rotating manner in the inner space of the reaction vessel, and to be discharged through the gas discharging port, the silicon single crystal substrate being disposed on a disc-formed susceptor rotated in the inner space, and having a bank component disposed so as to surround the susceptor, and kept in a positional relation so as to align the top surface thereof at an almost same level with the top surface of the susceptor, and further configured so that the gas introducing port is opened so as to oppose to the outer peripheral surface of the bank component, so as to allow the source gas supplied through the gas introducing port to collide against the outer peripheral surface of the bank component and to climb up onto the top surface side thereof, and then to flow along the main surface of the silicon single crystal substrate on the susceptor, further comprising an upper lining component disposed so as to hang over the bank component, while forming a gas introducing gap communicated with the reaction vessel by opposing the bank component and the upper lining component; characterized in that, assuming a virtual center line along the direction of flow of the source gas, extending from the first end of the reaction vessel towards the second end, while crossing normal to the axis of rotation of the susceptor, as the horizontal standard line, and also assuming the direction normal to both of the axis of rotation of the susceptor and the horizontal standard line as the width-wise direction, the gas introducing gap is configured so that the length-to-be-formed thereof in the parallel direction with the horizontal standard line is shortened in a continuous or step-wise manner (D 0, D 1) as distanced from the horizontal standard line in the width-wise direction, or remained constant at any position (D 0).
A gas cell for the spectroscopic, in particular absorption spectroscopic, analysis of a gas, in which the gas is exposed to an incoming beam of electromagnetic radiation and a beam of electromagnetic radiation (S A) emerging from the gas is detected to form a measurement signal, wherein the gas cell comprises a body made of a porous material that scatters electromagnetic radiation, and a coupling device for coupling the incoming beam into the gas cell and a decoupling device for decoupling the emerging beam (S A) from the gas cell, characterized in that a material-free cavity is formed in the body, which cavity is enclosed by an inner surface which extends within the material and both diffusely reflects and transmits the electromagnetic radiation.
An induction heating cooktop comprising: - a bridge rectifier that converts the alternating current into direct current, - a filter circuit disposed at the outlet of the bridge rectifier and that filters the voltage generated at the DC-line, - a resonant circuit having an induction coil that provides the heating of the vessel placed thereon and a resonant capacitor connected in parallel to the induction coil, - a power switch that drives the resonant circuit, - a freewheeling diode connected in parallel to the power switch and providing continuity of the induction coil current (I L) during the non-conduction times of the power switch, - a collector node whereon resonance voltage (Vce) is generated, and - a control unit that regulates the operation of the power switch, the induction heating cooktop being characterized in that it further comprises - a current detection circuit connected in series to the induction coil and providing the monitoring of the coil current (I L) transferred from the induction coil to the vessel by converting it into voltage data, wherein the control unit determines whether or not the vessel is present on the induction coil or whether alignment of the vessel on the induction coil is appropriate by comparing the phase difference time between the coil current (I L) detected by the current detection circuit and the resonance voltage (Vce) generated on the collector node with a threshold phase difference time recorded in its memory. - a bridge rectifier that converts the alternating current into direct current, - a filter circuit disposed at the outlet of the bridge rectifier and that filters the voltage generated at the DC-line, - a resonant circuit having an induction coil that provides the heating of the vessel placed thereon and a resonant capacitor connected in parallel to the induction coil, - a power switch that drives the resonant circuit, - a freewheeling diode connected in parallel to the power switch and providing continuity of the induction coil current (I L) during the non-conduction times of the power switch, - a collector node whereon resonance voltage (Vce) is generated, and - a control unit that regulates the operation of the power switch, the induction heating cooktop being characterized in that it further comprises - a current detection circuit connected in series to the induction coil and providing the monitoring of the coil current (I L) transferred from the induction coil to the vessel by converting it into voltage data,
Spring and damping arrangement for setting the spring rate and the riding position of a motorcycle, comprising a series circuit in the sequence formed from at least one coil spring, an air spring unit and a hydraulic actuator, the spring rate of the air spring unit changing in a manner which is dependent on a force F which acts from the outside on the spring and damping arrangement, the resulting riding position change being compensated for by means of the hydraulic loading of the hydraulic actuator, and, as a result, a defined riding position being capable of being set or being maintained.