mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising: a) a polymer which comprises poly(lactic acid), and b) an additive which comprises dipentaerythritol, wherein: - the weight percentage of poly(lactic acid) in the polymer is from 60 to 100%, - the weight percentage of the polymer is from 80 to 99.5%, and - the weight percentage of the additive is from 0.5 to 20%, wherein the % are expressed with respect to the total composition weight, provided that the sum of the amounts of the components is equal to 100%. a) a polymer which comprises poly(lactic acid), and b) an additive which comprises dipentaerythritol, - the weight percentage of poly(lactic acid) in the polymer is from 60 to 100%, - the weight percentage of the polymer is from 80 to 99.5%, and - the weight percentage of the additive is from 0.5 to 20%,
Pressing and compacting apparatus comprising a support body, at least one presser mean (12, 14) pivoted to the support body, at least one actuation member (18, 20) connected to said presser mean (12, 14) and configured to move said presser mean (12, 14) toward/away from said support body, and at least one detection device associated to the presser mean (12, 14) to detect the angular position of said presser mean (12, 14), characterized in that said detection device comprises at least one articulated connection mechanism pivoted with a first end to said presser mean (12, 14) and with a second end to said support body, and at least one angular detection member associated to the second end to detect an angular travel (β) of the articulated connection mechanism during the movement of the at least one presser mean (12, 14).
A method for checking at least one load bearing member of an elevator system, said load bearing member comprising tensile elements (2, 3) of electrically conductive material encapsulated in a case, the method comprising the steps of: a) launching a first source pulse through a first tensile element of said load bearing member, b) launching a second source pulse through a second tensile element of said load bearing member or of another load bearing member of said elevator system, c) making a comparison between a feedback received from said first tensile element and a feedback received from said second tensile element, and d) determining a condition of said tensile elements based on said comparison, wherein a different reflection of the first pulse compared to reflection of the second pulse is interpreted as an indication of damage. a) launching a first source pulse through a first tensile element of said load bearing member, b) launching a second source pulse through a second tensile element of said load bearing member or of another load bearing member of said elevator system, c) making a comparison between a feedback received from said first tensile element and a feedback received from said second tensile element, and d) determining a condition of said tensile elements based on said comparison,
A seat cushion length adjusting device, comprising: a support; an adjusting member displaceably mounted to the support and configured for coupling to at least a portion of a seat cushion (4, 5); and an actuator coupled to the support and the adjusting member, the actuator being configured to displace the adjusting member relative to the support, the actuator comprising: a power drive, a speed reduction gearing having an input coupled to the power drive and an output, and a motion conversion mechanism (21; 41, 42; 61, 62; 71, 72; 91-94) for converting a rotational motion of the output of the speed reduction gearing into a linear displacement between the adjusting member and the support, wherein the motion conversion mechanism (21; 41, 42; 61, 62; 71, 72; 91-94) comprises a spindle drive (21; 41, 42; 61, 62; 71, 72), the spindle drive (21; 41, 42; 61, 62; 71, 72) comprising a spindle (41; 61; 71) having an external thread and a spindle nut (42; 62; 72) having an internal thread engaged with the external thread of the spindle (41; 61; 71), characterized in that the spindle (41; 61) of the spindle drive (21; 41, 42; 61, 62; 71, 72) of the motion conversion mechanism is a flexible spindle. a support; an adjusting member displaceably mounted to the support and configured for coupling to at least a portion of a seat cushion (4, 5); and an actuator coupled to the support and the adjusting member, the actuator being configured to displace the adjusting member relative to the support, the actuator comprising: a power drive, a speed reduction gearing having an input coupled to the power drive and an output, and a motion conversion mechanism (21; 41, 42; 61, 62; 71, 72; 91-94) for converting a rotational motion of the output of the speed reduction gearing into a linear displacement between the adjusting member and the support, wherein the motion conversion mechanism (21; 41, 42; 61, 62; 71, 72; 91-94) comprises a spindle drive (21; 41, 42; 61, 62; 71, 72), the spindle drive (21; 41, 42; 61, 62; 71, 72) comprising a spindle (41; 61; 71) having an external thread and a spindle nut (42; 62; 72) having an internal thread engaged with the external thread of the spindle (41; 61; 71), a power drive, a speed reduction gearing having an input coupled to the power drive and an output, and a motion conversion mechanism (21; 41, 42; 61, 62; 71, 72; 91-94) for converting a rotational motion of the output of the speed reduction gearing into a linear displacement between the adjusting member and the support, wherein the motion conversion mechanism (21; 41, 42; 61, 62; 71, 72; 91-94) comprises a spindle drive (21; 41, 42; 61, 62; 71, 72), the spindle drive (21; 41, 42; 61, 62; 71, 72) comprising a spindle (41; 61; 71) having an external thread and a spindle nut (42; 62; 72) having an internal thread engaged with the external thread of the spindle (41; 61; 71), characterized in that the spindle (41; 61) of the spindle drive (21; 41, 42; 61, 62; 71, 72) of the motion conversion mechanism is a flexible spindle.
Compounds which are -stereoisomers of substituted 2-thioxo-imidazolidine-4-ones expressed by the general formula 1, wherein: R1 is OH, NH 2, or a OR4 group; R2 and R3 together are a CH 2 -CH 2 group; R4 is C 1 -C 4 alkyl or cyclopropyl. R1 is OH, NH 2, or a OR4 group; R2 and R3 together are a CH 2 -CH 2 group; R4 is C 1 -C 4 alkyl or cyclopropyl.
A system for producing a predetermined electromagnetic field distribution in a defined volume or region, comprising a multi-channel radio frequency or microwave power source, an array of electromagnetic field generating elements connected to said multi-channel radio frequency or microwave power source, and a feedback controller for controlling the radio frequency or microwave power source to achieve the desired electromagnetic field produced by each of said elements such that the superposition of the fields produced by said electromagnetic field generating elements produces said predetermined electromagnetic field distribution in said defined volume, the feedback to the controller being the amplitude and phase of the electromagnetic field generated by each of the generating elements, wherein current sensors or electric, magnetic or electromagnetic field sensors are integrated with each electromagnetic field generating element for determining directly the element excitation and hence indirectly the amplitude and phase of the electromagnetic field generated by each of the generating elements, the system further comprising a plurality of measurement devices, each measurement device being interconnected with at least one respective sensor and thus being integrated with an associated generating element having said at least one respective sensor integrated therein, for determining and outputting the amplitude and phase of the signal from said at least one respective sensor and hence the electromagnetic field produced by said associated element.
A communication system comprising: a first terminal; and a second terminal including a stow part for stowing the first terminal, the second terminal configured to perform wireless communication with the first terminal, wherein the first terminal includes a first light emitter to emit infrared light, a first light receiver to receive infrared light, a first memory to store first specifying information for specifying the first terminal, and a first controller configured to cause the first light emitter to emit light based on the first specifying information upon determining that a signal obtained by demodulating the infrared light received by the first light receiver includes a pairing request signal, and the second terminal includes a second stow sensor to detect that the first terminal is stowed in the stow part, a second light emitter to emit infrared light, a second light receiver to receive infrared light, a second memory, and a second controller configured to cause the second light emitter to emit light based on the pairing request signal in accordance with detection of stow of the first terminal by the second stow sensor, to cause the second memory to store the first specifying information obtained by demodulating infrared light received by the second light receiver, and upon determining that information obtained by demodulating the infrared light received by the second light receiver includes the first specifying information stored in the second memory, to perform control corresponding to the information. a first terminal; and a second terminal including a stow part for stowing the first terminal, the second terminal configured to perform wireless communication with the first terminal, wherein the first terminal includes a first light emitter to emit infrared light, a first light receiver to receive infrared light, a first memory to store first specifying information for specifying the first terminal, and a first controller configured to cause the first light emitter to emit light based on the first specifying information upon determining that a signal obtained by demodulating the infrared light received by the first light receiver includes a pairing request signal, and the second terminal includes a second stow sensor to detect that the first terminal is stowed in the stow part, a second light emitter to emit infrared light, a second light receiver to receive infrared light, a second memory, and a second controller configured to cause the second light emitter to emit light based on the pairing request signal in accordance with detection of stow of the first terminal by the second stow sensor, to cause the second memory to store the first specifying information obtained by demodulating infrared light received by the second light receiver, and upon determining that information obtained by demodulating the infrared light received by the second light receiver includes the first specifying information stored in the second memory, to perform control corresponding to the information.
A method for user authentication in a video communication apparatus, the video communication apparatus including a user authentication unit, the method comprising: receiving image data (310, 320, 330, 340, 350) of a plurality of users; detecting a face region (311, 321, 331, 341, 351) of each of the plurality of users by using the received image data (310, 320, 330, 340, 350); performing a user authentication by comparing face feature information corresponding to each of the detected face regions (311, 321, 331, 341, 351) with pre-registered face feature information; displaying the detected face regions (311, 321, 331, 341, 351) based on comparison result, wherein the detected face regions (311, 321, 331, 341, 351) are displayed to indicate differently authenticated users from unauthenticated users on a screen; receiving a selection of any one of the face regions (311, 331, 341) for the authenticated users displayed on the screen; and permitting, by the user authentication unit, a user corresponding to the selected face region to log-in and access to the video communication apparatus to enter a video-communication mode. receiving image data (310, 320, 330, 340, 350) of a plurality of users; detecting a face region (311, 321, 331, 341, 351) of each of the plurality of users by using the received image data (310, 320, 330, 340, 350); performing a user authentication by comparing face feature information corresponding to each of the detected face regions (311, 321, 331, 341, 351) with pre-registered face feature information; displaying the detected face regions (311, 321, 331, 341, 351) based on comparison result, wherein the detected face regions (311, 321, 331, 341, 351) are displayed to indicate differently authenticated users from unauthenticated users on a screen; receiving a selection of any one of the face regions (311, 331, 341) for the authenticated users displayed on the screen; and permitting, by the user authentication unit, a user corresponding to the selected face region to log-in and access to the video communication apparatus to enter a video-communication mode.
A method of removing metal oxides from a treating surface of a substrate, the method comprising: - providing the substrate which is proximal to a first electrode; - providing a second electrode that is proximal to the first electrode and the substrate wherein at least a portion of the treating surface is exposed to the second electrode and wherein the first and the second electrodes and the substrate reside within a target area; passing a gas mixture comprising a reducing gas through the target area; supplying energy between the first and the second electrode to generate electrons within the target area wherein at least a portion of the electrons attach to at least a portion of the reducing gas thereby forming a negatively charged reducing gas, wherein the energy comprises a pulsed direct current voltage; and contacting the treating surface with the negatively charged reducing gas to reduce the metal oxides on the treating surface of the substrate. - providing the substrate which is proximal to a first electrode; - providing a second electrode that is proximal to the first electrode and the substrate wherein at least a portion of the treating surface is exposed to the second electrode and wherein the first and the second electrodes and the substrate reside within a target area; passing a gas mixture comprising a reducing gas through the target area; supplying energy between the first and the second electrode to generate electrons within the target area wherein at least a portion of the electrons attach to at least a portion of the reducing gas thereby forming a negatively charged reducing gas, wherein the energy comprises a pulsed direct current voltage; and contacting the treating surface with the negatively charged reducing gas to reduce the metal oxides on the treating surface of the substrate.
A method for producing a compound having a heterocycle introduced by an azoline backbone introducing enzyme comprising: preparing a peptide represented by the following formula: (Xaa 2)m-(Xaa 3)n-(Xaa 4)o wherein, (Xaa 2)m represents m numbers of arbitrary amino acids and m represents an integer selected from 0 to 10; (Xaa 3)n represents n numbers of arbitrary amino acids, at least one of which is an amino acid selected from the group consisting of Cys, Ser, Thr, 2,3-diamino acids, homocysteine, homoserine, and 2,4-diamino acids, and analogs thereof, and n represents an integer selected from 2 to 40; and (Xaa 4)o represents o numbers of arbitrary amino acids and o represents an integer selected from 0 to 10, and reacting the peptide with an azoline backbone introducing enzyme to which a leader sequence of a substrate or a partial sequence thereof has been fused via or not via a spacer to introduce a heterocycle into at least one of Cys, Ser, Thr, 2,3-diamino acids, homocysteine, homoserine, and 2,4-diamino acids, and analogs thereof of (Xaa 3)n. preparing a peptide represented by the following formula: (Xaa 2)m-(Xaa 3)n-(Xaa 4)o wherein, (Xaa 2)m represents m numbers of arbitrary amino acids and m represents an integer selected from 0 to 10; (Xaa 3)n represents n numbers of arbitrary amino acids, at least one of which is an amino acid selected from the group consisting of Cys, Ser, Thr, 2,3-diamino acids, homocysteine, homoserine, and 2,4-diamino acids, and analogs thereof, and n represents an integer selected from 2 to 40; and (Xaa 4)o represents o numbers of arbitrary amino acids and o represents an integer selected from 0 to 10, and (Xaa 2)m represents m numbers of arbitrary amino acids and m represents an integer selected from 0 to 10; (Xaa 3)n represents n numbers of arbitrary amino acids, at least one of which is an amino acid selected from the group consisting of Cys, Ser, Thr, 2,3-diamino acids, homocysteine, homoserine, and 2,4-diamino acids, and analogs thereof, and n represents an integer selected from 2 to 40; and (Xaa 4)o represents o numbers of arbitrary amino acids and o represents an integer selected from 0 to 10, and reacting the peptide with an azoline backbone introducing enzyme to which a leader sequence of a substrate or a partial sequence thereof has been fused via or not via a spacer to introduce a heterocycle into at least one of Cys, Ser, Thr, 2,3-diamino acids, homocysteine, homoserine, and 2,4-diamino acids, and analogs thereof of (Xaa 3)n.
A system for locating an object on a surface waveguide comprising: - at least two signal emitters (111, 112) with known positions, associated with said surface; - the object being associated with a receiver configured to determine its position from signals received from the at least two signal emitters (111, 112) through one or more waveguides embedded in the surface waveguide; wherein the receiver comprises a surface coupling device configured to receive the electromagnetic signal emitted by the signal emitters; wherein the surface waveguide is configured to guide electromagnetic signals emitted from one or more emitters and to be coupled with one or more receivers associated with said surface waveguide, the position of a receiver being determinable by signal processing; wherein the surface waveguide comprises one or more two-dimensional waveguides comprising conductive elements, an electrical mass layer, and one or more vias connecting one or more conductive elements to the electrical mass layer; wherein the surface waveguide comprises two frequency-selective layers respectively supporting transverse-magnetic and transverse-electric modes with a same phase velocity; and wherein the first layer comprises gaps in one first direction and the second layer comprises continuous conducting strips in a second orthogonal direction. - at least two signal emitters (111, 112) with known positions, associated with said surface; - the object being associated with a receiver configured to determine its position from signals received from the at least two signal emitters (111, 112) through one or more waveguides embedded in the surface waveguide; wherein the receiver comprises a surface coupling device configured to receive the electromagnetic signal emitted by the signal emitters; wherein the surface waveguide is configured to guide electromagnetic signals emitted from one or more emitters and to be coupled with one or more receivers associated with said surface waveguide, the position of a receiver being determinable by signal processing; wherein the surface waveguide comprises one or more two-dimensional waveguides comprising conductive elements, an electrical mass layer, and one or more vias connecting one or more conductive elements to the electrical mass layer; wherein the surface waveguide comprises two frequency-selective layers respectively supporting transverse-magnetic and transverse-electric modes with a same phase velocity; and wherein the first layer comprises gaps in one first direction and the second layer comprises continuous conducting strips in a second orthogonal direction.
A device for curing resin-impregnated lining tubes with high-energy radiation, comprising at least one radiation source for generating high-energy radiation and at least one power control device for regulating the electrical power output to the at least one radiation source, wherein at least one setpoint parameter representative of the desired electrical power consumption by the radiation source is settable or set at the power control device, and the actual power consumed by the at least one radiation source is measured by means of a measuring device and is permanently compared with the setpoint parameter, wherein, in the case where the setpoint parameter is undershot, the power control device increases the power output and, in the case where the setpoint parameter is exceeded, the power output is reduced, and/or the movement of the device in the lining tube is regulated depending on the actual power output of the radiation source, and wherein the actual power output of the power control device can deviate from the predefined setpoint parameter, such that the actual power of the radiation source corresponds to the setpoint parameter, and wherein the setpoint parameter comprises definable values for the setpoint output voltage, the setpoint output current, the setpoint output power and/or the setpoint output frequency.
Apparatus for additively manufacturing at least one three-dimensional object by means of successive layerwise selective irradiation and consolidation of layers of build material which can be consolidated by means of at least one energy beam, the apparatus comprising at least one build material application device, the build material application device comprising: - at least one blade-like build material application member; - at least one support unit for supporting the blade-like build material application member, wherein the support unit comprises at least two support unit members (9a, 9b), the support unit members (9a, 9b) defining a, particularly gap-like shaped, receiving section for receiving a blade-like build material application member which is to be supported by means of the support unit, characterized in that a first support unit member is moveably supported relative to a second support unit member between a first operating position, in which a holding force is exertable or exerted on a blade-like build material application member received in the receiving section, and a second operating position, in which no holding force is exertable or exerted on a blade-like build material application member received in the receiving section. - at least one blade-like build material application member; - at least one support unit for supporting the blade-like build material application member, wherein