mhurhangee/ep-ind-claims huggingface dataset:
A drug delivery composition comprising: a drug elution rate-controlling excipient comprising an elastomeric polymer defining a reservoir, and the reservoir contains at least one discrete solid dosage form comprising tizanidine free base, wherein the at least one discrete solid dosage form is completely enclosed by the drug elution rate-controlling excipient, and wherein the drug delivery composition is in an implantable dosage form. a drug elution rate-controlling excipient comprising an elastomeric polymer defining a reservoir, and the reservoir contains at least one discrete solid dosage form comprising tizanidine free base, wherein the at least one discrete solid dosage form is completely enclosed by the drug elution rate-controlling excipient, and wherein the drug delivery composition is in an implantable dosage form.
A method of forming an Al 2 O 3 /SiO 2 stack comprising successively the steps of: a) providing a substrate into a reaction chamber; b) injecting into the reaction chamber, through an ALD process, at least one silicon containing compound comprising at least 97% of at least one silicon containing compound selected from the group consisting of: BDEAS Bis(diethylamino)silane SiH 2 (NEt 2) 2, BDMAS Bis(dimethylamino)silane SiH 2 (NMe 2) 2, BEMAS Bis(ethylmethylamino)silane SiH 2 (NEtMe) 2, DIPAS (Di-isopropylamido)silane SiH 3 (NiPr 2), DTBAS (Di tert-butylamido)silane SiH 3 (NtBu 2); c) injecting into the reaction chamber an oxygen source selected in the list: oxygen, ozone, oxygen plasma, water, CO 2 plasma, N 2 O plasma; d) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the silicon containing compounds and the oxygen source in order to obtain the SiO 2 layer deposited onto the substrate; e) injecting on said silicon oxide film, through an ALD process, at least one aluminum containing compound being Al(Me) 3 or Al(Et) 3; f) injecting the oxygen source as defined in step c); g) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the aluminium containing compounds and the oxygen source in order to obtain the Al 2 O 3 layer deposited onto the SiO 2 layer issued of step d). a) providing a substrate into a reaction chamber; b) injecting into the reaction chamber, through an ALD process, at least one silicon containing compound comprising at least 97% of at least one silicon containing compound selected from the group consisting of: BDEAS Bis(diethylamino)silane SiH 2 (NEt 2) 2, BDMAS Bis(dimethylamino)silane SiH 2 (NMe 2) 2, BEMAS Bis(ethylmethylamino)silane SiH 2 (NEtMe) 2, DIPAS (Di-isopropylamido)silane SiH 3 (NiPr 2), DTBAS (Di tert-butylamido)silane SiH 3 (NtBu 2); c) injecting into the reaction chamber an oxygen source selected in the list: oxygen, ozone, oxygen plasma, water, CO 2 plasma, N 2 O plasma; d) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the silicon containing compounds and the oxygen source in order to obtain the SiO 2 layer deposited onto the substrate; e) injecting on said silicon oxide film, through an ALD process, at least one aluminum containing compound being Al(Me) 3 or Al(Et) 3; f) injecting the oxygen source as defined in step c); g) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the aluminium containing compounds and the oxygen source in order to obtain the Al 2 O 3 layer deposited onto the SiO 2 layer issued of step d).
A system for controlling an autonomous vehicle, comprising: a memory configured to store parameters of a g-g plot defining admissible space of values of longitudinal and lateral accelerations (123, 127), the g-g plot parameters include a maximum forward acceleration (a), a maximum backward acceleration (b), a maximum lateral acceleration (c) and a shape parameter (p) defining profile of curves connecting maximum values of forward, backward, and lateral accelerations; an input interface configured to accept a comfort level as a feedback from a passenger of the vehicle; a processor configured to determine a dominant parameter corresponding to the feedback and to update the dominant parameter of the g-g plot based on the comfort level indicated in the feedback; and a controller configured to control the vehicle to maintain dynamics of the vehicle within the admissible space defined by the parameters of the updated g-g plot. a memory configured to store parameters of a g-g plot defining admissible space of values of longitudinal and lateral accelerations (123, 127), the g-g plot parameters include a maximum forward acceleration (a), a maximum backward acceleration (b), a maximum lateral acceleration (c) and a shape parameter (p) defining profile of curves connecting maximum values of forward, backward, and lateral accelerations; an input interface configured to accept a comfort level as a feedback from a passenger of the vehicle; a processor configured to determine a dominant parameter corresponding to the feedback and to update the dominant parameter of the g-g plot based on the comfort level indicated in the feedback; and a controller configured to control the vehicle to maintain dynamics of the vehicle within the admissible space defined by the parameters of the updated g-g plot.
An electrical contact device for electrically connecting a first component and a second component comprising an outer conductor (1; 1'; 1 1; 1 2), at least one inner conductor (2; 2'; 2 1, 2 2; 2 1, 2 2; 2 1 1, 2 1 2, 2 2 1, 2 2 2) arranged within the outer conductor (1; 1'; 1 1; 1 2), and a first elastic element (8; 8'; 8"; 8''') arranged between the outer conductor (1; 1'; 1 1; 1 2) and the at least one inner conductor (2; 2'; 2 1, 2 2; 2 1, 2 2; 2 1 1, 2 1 2, 2 2 1, 2 2 2), wherein the outer conductor (1; 1'; 1 1; 1 2) and the at least one inner conductor (2; 2'; 2 1, 2 2; 2 1, 2 2; 2 1 1, 2 1 2, 2 2 1, 2 2 2) in each case are connected or can be contacted with the first component and with the second component, wherein the axial extension of the at least one inner conductor (2; 2'; 2 1, 2 2; 2 1, 2 2; 2 1 1, 2 1 2, 2 2 1, 2 2 2) and of the outer conductor (1; 1'; 1 1; 1 2) in each case can be changed, wherein the outer conductor (1; 1'; 1 1; 1 2) and the at least one inner conductor (2; 2'; 2 1, 22; 2 1, 2 2; 2 1 1, 2 1 2, 2 2 1, 2 2 2) in each case are metallic, wherein the first elastic element (8; 8'; 8"; 8''') is produced from an electrically insulating material and is fixed to the outer conductor (1; 1'; 1 1; 1 2), characterized in that due to the elasticity of the first elastic element (8; 8'; 8"; 8''') and the fixing of the first elastic element (8; 8'; 8"; 8''') to the outer conductor (1; 1'; 1 1; 1 2) in a compressed state of the first elastic element (8; 8'; 8"; 8''') a spring force can be transferred from the first elastic element (8; 8'; 8"; 8''') to the outer conductor (1; 1'; 1 1; 1 2) and that the electrically insulating material of the first elastic element (8; 8'; 8"; 8''') is an elastomer.
Dimmable LED reading light unit, in particular for a passenger transportation vehicle, such as an airplane, a bus or a ship, comprising an input configured to be connected to a potentiometer that outputs a direct voltage having a voltage intensity corresponding to a selected potentiometer position; an output configured to be connected to a ground line of a power supply system; a load current source being configured to generate a predetermined load current; a current controller providing an operating current for operating at least one LED; the dimmable LED reading light unit being characterised in that it comprises: an electronic measuring and control unit connected to the load current source and to the current controller; wherein the load current source and the current controller are connected in parallel between the input and the output; wherein the electronic measuring and control unit is configured to measure the voltage when no load current is generated by the load current source; to drive the load current source to generate a predetermined load current and to measure the voltage when the predetermined load current is generated; to determine the position of the potentiometer, based on the measured voltages, based on the load current, and based on a predetermined nominal resistance value of the potentiometer; and to control the current controller to supply driving current to the at least one LED necessary to emit light with a luminous flux corresponding to the position of the potentiometer. an electronic measuring and control unit connected to the load current source and to the current controller; wherein the load current source and the current controller are connected in parallel between the input and the output; wherein the electronic measuring and control unit is configured to measure the voltage when no load current is generated by the load current source; to drive the load current source to generate a predetermined load current and to measure the voltage when the predetermined load current is generated; to determine the position of the potentiometer, based on the measured voltages, based on the load current, and based on a predetermined nominal resistance value of the potentiometer; and to control the current controller to supply driving current to the at least one LED necessary to emit light with a luminous flux corresponding to the position of the potentiometer.
A method of controlling the output power from a wind energy installation to an electrical grid with a specified nominal grid frequency (f N), in which - the output power is controlled as a function of the time derivative of the grid frequency (f) - a threshold value (f t) for the grid frequency (f) which is different to the nominal grid frequency (f N) is present, and - the output power is controlled as a function of the time derivative of the grid frequency (f) and/or as a function of the deviation of the grid frequency (f) from the nominal frequency (f N) characterisec in that the output power is controlled as a function of the time derivative of the grid frequency (f) as long as the grid frequency (f) is between the nominal grid frequency (f N) and the threshold value (f t), and the output power is controlled as a function of the time derivative of the grid frequency (f) and as a function of the deviation of grid frequency (f) from the nominal frequency (f N) when the grid frequency (f) is not between the nominal grid frequency (f N) and the threshold value (f t). - the output power is controlled as a function of the time derivative of the grid frequency (f) - a threshold value (f t) for the grid frequency (f) which is different to the nominal grid frequency (f N) is present, and - the output power is controlled as a function of the time derivative of the grid frequency (f) and/or as a function of the deviation of the grid frequency (f) from the nominal frequency (f N)
A network interface device adapted to provide a set of virtual network interfaces, the network interface device being operable to select a particular configuration of virtual network interfaces in accordance with configuration instructions received at the network interface device, the network interface device being characterized in that it is configured to, on receiving a network message having one or more predetermined characteristics and comprising an authentication key and configuration instructions defining a new virtual network interface: verify the authentication key; and if the authentication key is successfully verified, create the new virtual network interface defined in the configuration instructions of the network message. verify the authentication key; and if the authentication key is successfully verified, create the new virtual network interface defined in the configuration instructions of the network message.
An article storage case in a substantially cubic or rectangular parallelepiped form having an opening oriented upwardly, whereby a sidewall thereof has an outside surface formed with an engagement projection and an engagement recess, and when a plurality of such article storage cases are placed side by side, the engagement projection of one of adjacent article storage cases is capable of being movably fitted into the engagement recess of another one of the article storage cases () to couple the adjacent storage cases to each other by engagement between the engagement projection and the engagement recess which are movably fitted with each other wherein the engagement projection is a projecting ridge extending horizontally on the outside surface of the sidewall, the vertical cross section of the projection ridge is substantially T-shaped, and the engagement recess is an elongated recess extending horizontally on the outside surface of the sidewall, the vertical cross section of the elongated recess is substantially C-shaped to have an opening which is narrower than an inside space of the engagement recess characterised in that the T-shaped ridge has bulged tips that extend upwardly and downwardly respectively, and the height between the upper tip and the lower tip of the t-shaped projecting ridge is smaller than the height of the opening of the engagement recess so that the engagement projection can freely enter into the engagement recess through the opening by simply placing the article storage cases side by side.
A security device comprising: - a first luminescent layer which, when stimulated, emits luminescent radiation (1070, 1080) of at least a first wavelength; - a second luminescent layer which, when stimulated, emits luminescent radiation of at least a second wavelength; - an optically variable structure for controlling said luminescent radiation of said first luminescent layer, said structure being constructed and arranged to permit emission of luminescent radiation of said first wavelength through said structure at a first range of angles, said structure being constructed and arranged to minimize emission of luminescent radiation from said first luminescent layer for a second range of angles; wherein - said first luminescent layer is positioned such that said emission of luminescent radiation through said structure at said first range of angles is visible to a user; - said second luminescent layer is positioned to allow said user to view emission of luminescent radiation of said second wavelength from said second luminescent layer at least one predetermined angle; - said first luminescent layer, when producing luminescent radiation of said first wavelength, forms a first image; - said second luminescent layer, when producing luminescent radiation of said second wavelength, forms a second image; - said first image complements said second image such that when said first and second image are viewed together, said first and second image form a third image characterized in that - said optically variable structure is positioned between said first luminescent layer and said second luminescent layer. - a first luminescent layer which, when stimulated, emits luminescent radiation (1070, 1080) of at least a first wavelength; - a second luminescent layer which, when stimulated, emits luminescent radiation of at least a second wavelength; - an optically variable structure for controlling said luminescent radiation of said first luminescent layer, said structure being constructed and arranged to permit emission of luminescent radiation of said first wavelength through said structure at a first range of angles, said structure being constructed and arranged to minimize emission of luminescent radiation from said first luminescent layer for a second range of angles; - said first luminescent layer is positioned such that said emission of luminescent radiation through said structure at said first range of angles is visible to a user; - said second luminescent layer is positioned to allow said user to view emission of luminescent radiation of said second wavelength from said second luminescent layer at least one predetermined angle; - said first luminescent layer, when producing luminescent radiation of said first wavelength, forms a first image; - said second luminescent layer, when producing luminescent radiation of said second wavelength, forms a second image; - said first image complements said second image such that when said first and second image are viewed together, said first and second image form a third image characterized in that - said optically variable structure is positioned between said first luminescent layer and said second luminescent layer.
A multi-stator rotating electrical machine comprising: an inner stator; an outer stator; a rotor provided radially between inner stator and the outer stator; an inner gap distance (δ i) between the rotor and the inner stator; and an outer gap distance (δ ο) between the rotor and the outer stator (iob); wherein an average of the inner gap distance (δ i) is between 75 and 80 per cent of an average of the outer gap distance (δ ο). an inner stator; an outer stator; a rotor provided radially between inner stator and the outer stator; an inner gap distance (δ i) between the rotor and the inner stator; and an outer gap distance (δ ο) between the rotor and the outer stator (iob); wherein an average of the inner gap distance (δ i) is between 75 and 80 per cent of an average of the outer gap distance (δ ο).
A mounting apparatus, in particular for mounting insulating material dowels, comprising: a drive train, a transmission element for transmission of a movement of the drive train on a fastening element, and a stop disc, characterized in that the mounting apparatus comprises a guiding sleeve for guiding the fastening element during the arranging of the fastening element at the transmission element, the guiding sleeve being arranged resiliently at the remaining mounting apparatus. a drive train, a transmission element for transmission of a movement of the drive train on a fastening element, and a stop disc, characterized in that the mounting apparatus comprises a guiding sleeve for guiding the fastening element during the arranging of the fastening element at the transmission element, the guiding sleeve being arranged resiliently at the remaining mounting apparatus.
Method for operating a radar sensor (5, 6) of a motor vehicle, in which for detecting a target object in an environment of the motor vehicle a transmit signal is emitted by means of the radar sensor (5, 6) and an echo signal reflected on the target object is received as a received signal, wherein a plurality of sequences each including a plurality of frequency-modulated chirp signals are emitted one after the other by means of the radar sensor (5, 6) as the transmit signal, wherein a transmission pause respectively follows each sequence, and wherein the period of time of the transmission pauses is respectively randomly adjusted in the operation of the radar sensor (5, 6), characterized in that two radar sensors (5, 6) of the motor vehicle are simultaneously operated and emit respective transmit signals each having a plurality of sequences of chirp signals, wherein at least in one of the radar sensors (5, 6) the period of time of the transmission pauses between each two temporally adjacent sequences is randomly adjusted in the operation of the radar sensor (5, 6) and an at least unidirectional data communication is performed between the radar sensors (5, 6) and within the scope of the data communication one of the radar sensors (5, 6) communicates data to the other radar sensor (5, 6), which includes information about the randomly adjusted period of time and/or about the point of time of emission of a sequence.
A formulation comprising 1,2-benzisothiazolin-3-one, and a polyglycol liquid carrier of formula: R-O- n -R' wherein n is 4-25; R and R' are independently hydrogen, C 1 -C 3 alkyl groups, O=C-CH 3 group, or O=C-C 2 H 5 group; and AO is a) CH 2 CH 2 O, or b) CH 2 CH 2 O /CH 2 CHMe-O block or random copolymer; wherein R and R' are not simultaneously alkyl groups, with proviso that when R and R 1 are both hydrogen, AO is a block or random copolymer. n is 4-25; R and R' are independently hydrogen, C 1 -C 3 alkyl groups, O=C-CH 3 group, or O=C-C 2 H 5 group; and AO is a) CH 2 CH 2 O, or b) CH 2 CH 2 O /CH 2 CHMe-O block or random copolymer; wherein R and R' are not simultaneously alkyl groups, with proviso that when R and R 1 are both hydrogen, AO is a block or random copolymer.
A polyurethane resin composition comprising: a first urethane resin; a second urethane resin obtained by reacting polyether polyol, an aminoalkoxy silane-based compound, an aliphatic polyisocyanate, and a biuret body bonded with isocyanate; and a plasticizer. a first urethane resin; a second urethane resin obtained by reacting polyether polyol, an aminoalkoxy silane-based compound, an aliphatic polyisocyanate, and a biuret body bonded with isocyanate; and a plasticizer.
A method comprising: dividing an image into a plurality of cells; determining a plurality of gradients for each of a plurality of cells of the image; wherein the image is divided into the plurality of cells prior to determining the plurality of gradients; selecting a bin configuration prior to assigning the gradients to respective bins, wherein selecting a bin configuration comprises selecting a bin configuration having a bin positioned at the location coinciding with the gradient having the greatest probability and being skewed in the same direction as the distribution of gradients; assigning the gradients for a respective cell to a respective one of a plurality of bins of the bin configuration that has been selected; determining a plurality of feature descriptors, wherein each feature descriptor includes a representation of a distribution of gradients between the plurality of bins of a respective cell as a probability distribution; and compressing the plurality of feature descriptors, wherein the plurality of feature descriptors consists of the gradient distributions of the respective cells. dividing an image into a plurality of cells; determining a plurality of gradients for each of a plurality of cells of the image; wherein the image is divided into the plurality of cells prior to determining the plurality of gradients; selecting a bin configuration prior to assigning the gradients to respective bins, wherein selecting a bin configuration comprises selecting a bin configuration having a bin positioned at the location coinciding with the gradient having the greatest probability and being skewed in the same direction as the distribution of gradients; assigning the gradients for a respective cell to a respective one of a plurality of bins of the bin configuration that has been selected; determining a plurality of feature descriptors, wherein each feature descriptor includes a representation of a distribution of gradients between the plurality of bins of a respective cell as a probability distribution; and compressing the plurality of feature descriptors, wherein the plurality of feature descriptors consists of the gradient distributions of the respective cells.