mhurhangee/ep-ind-claims huggingface dataset:
Fruit press for citrus fruits, comprising a press head, which executes a press stroke and comprises two accommodating dies, each for one fruit half, which are arranged on both sides of a blade and can be pivoted in opposite directions via parallel shafts between an upper accommodating position and a lower pressing position, comprising rams which are assigned to the press head and interact with the accommodating dies in the lower pressing position, and comprising a discharging device for the skins of the pressed fruit halves, characterised in that the discharging device for the skins of the pressed fruit halves has a discharging comb, of which the fingers engage in grooves of the rams, which grooves are oriented in the direction of the shafts of the accommodating dies, and the discharging comb is displaceable between a lower starting position, with fingers lowered in the grooves of the rams, and a discharging position, with fingers raised above the rams and sloping down in the direction of the shafts to a discharging opening.
A vehicle lighting device, comprising: a semiconductor-type light source; a first reflector covering the semiconductor-type light source therewith, for reflecting light emitted from the semiconductor-type light source so as to be oriented in a predetermined direction; a second reflector for causing the reflected light from the first reflector to be incident thereto and then reflecting the incident light so as to be oriented forward of the lighting device; a shade for shading a part of the reflected light from the first reflector and then causing a remaining part thereof to be incident to the second reflector; and a heat sink member onto which the semiconductor-type light source, the first reflector, the second reflector, and the shade are mounted, wherein the shade being configured as another member independent of the first reflector and the second reflector, the shade being arranged in the heat sink member characterized in that the shade is formed in a substantial V-shape on a side face, one side of which is configured as a positioning portion which extends in a horizontal direction and is positioned on a rack portion of the heat sink member and the other side of which is configured as a fixing portion which is fixed to a front face portion communicating with the rack portion of the heat sink member, the shade is directly securely tightened and fixed to the heat sink member (40 through a shade arrangement port, and the first reflector and the second reflector are integrally formed in a shape in which the shade arrangement port is opened. a semiconductor-type light source; a first reflector covering the semiconductor-type light source therewith, for reflecting light emitted from the semiconductor-type light source so as to be oriented in a predetermined direction; a second reflector for causing the reflected light from the first reflector to be incident thereto and then reflecting the incident light so as to be oriented forward of the lighting device; a shade for shading a part of the reflected light from the first reflector and then causing a remaining part thereof to be incident to the second reflector; and a heat sink member onto which the semiconductor-type light source, the first reflector, the second reflector, and the shade are mounted, wherein the shade being configured as another member independent of the first reflector and the second reflector, the shade being arranged in the heat sink member the shade is formed in a substantial V-shape on a side face, one side of which is configured as a positioning portion which extends in a horizontal direction and is positioned on a rack portion of the heat sink member and the other side of which is configured as a fixing portion which is fixed to a front face portion communicating with the rack portion of the heat sink member, the shade is directly securely tightened and fixed to the heat sink member (40 through a shade arrangement port, and the first reflector and the second reflector are integrally formed in a shape in which the shade arrangement port is opened.
A method of forming an integrated circuit, IC, package substrate comprising: depositing a first surface finish on one or more lands disposed on a first side of the package substrate, wherein the first side is disposed opposite a second side of the substrate; and depositing a second surface finish on one or more electrical routing features embedded in a die interconnect region, the die interconnect region comprising a silicon bridge and being disposed on the second side of the package substrate, the second surface finish being in direct contact with the one or more electrical routing features, wherein the electrical routing features are to bond with die interconnect structures of one or more dies, and wherein the second surface finish has a different chemical composition than the first surface finish. depositing a first surface finish on one or more lands disposed on a first side of the package substrate, wherein the first side is disposed opposite a second side of the substrate; and depositing a second surface finish on one or more electrical routing features embedded in a die interconnect region, the die interconnect region comprising a silicon bridge and being disposed on the second side of the package substrate, the second surface finish being in direct contact with the one or more electrical routing features, wherein the electrical routing features are to bond with die interconnect structures of one or more dies, and wherein the second surface finish has a different chemical composition than the first surface finish.
Suction device, in particular vacuum cleaner, having at least one drive unit (12a; 12b; 12c; 12d) for generating a suction flow, having at least one housing unit (14a; 14b; 14c; 14d) forming at least one suction opening (16a; 16b; 16c; 16d) which in at least one operating state of the drive unit (12a; 12b; 12c; 12d) is provided for suctioning ambient air, in particular contaminated ambient air, by means of the suction flow, and having at least one dust collection vessel (18a; 18b; 18c; 18d), which is disposed in the housing unit (14a; 14b; 14c; 14d), for receiving dirt separated from the suction flow, wherein the housing unit (14a; 14b; 14c; 14d) forms at least one dirt opening (20a; 20b; 20c; 20d) which is different from the suction opening (16a; 16b; 16c; 16d) and which in the at least one operating state is provided for filling the dust collection vessel (18a; 18b; 18c; 18d), wherein at least one closing unit (24a; 24b; 24c; 24d) is provided for selectively opening and closing the dirt opening (20a; 20b; 20c; 20d), characterized by at least one actuator (28a; 28b; 28c; 28d) which, as a function of a closing position of the at least one closing unit (24a; 24b; 24c; 24d), is provided to couple or decouple the at least one dirt opening (20a; 20b; 20c; 20d) and/or the at least one suction opening (16a; 16b; 16c; 16d) to/from the suction flow. the housing unit (14a; 14b; 14c; 14d) forms at least one dirt opening (20a; 20b; 20c; 20d) which is different from the suction opening (16a; 16b; 16c; 16d) and which in the at least one operating state is provided for filling the dust collection vessel (18a; 18b; 18c; 18d), wherein at least one closing unit (24a; 24b; 24c; 24d) is provided for selectively opening and closing the dirt opening (20a; 20b; 20c; 20d), characterized by at least one actuator (28a; 28b; 28c; 28d) which, as a function of a closing position of the at least one closing unit (24a; 24b; 24c; 24d), is provided to couple or decouple the at least one dirt opening (20a; 20b; 20c; 20d) and/or the at least one suction opening (16a; 16b; 16c; 16d) to/from the suction flow.
A capacity expansion method for optical transmission link network without service interruption, which is characterized in that it comprises: configuring service time slots of new added network element in advance of service rearranging, and rearranging services of a working channel to a protection channel, then reconfiguring optical fibers of the working channel to the new added network element, and rearranging the services from the protection channel back to the working channel, and finally reconfiguring the optical fiber of the protection channel to the new added network element.
A method for treating panels in the manufacture of printed circuit boards which includes the following phases: - setting up a panel with a first side, a second side opposite the first side, and at least one through hole in the thickness of the panel; - positioning the opening for an intake system in contact with the first side of the panel so this opening delimits a portion on the first side containing the through hole; - creating negative pressure within the intake system and simultaneously - exposing at least one portion on the second side of this panel to a flow of plasma, whereby this portion on the second side contains the through hole. - setting up a panel with a first side, a second side opposite the first side, and at least one through hole in the thickness of the panel; - positioning the opening for an intake system in contact with the first side of the panel so this opening delimits a portion on the first side containing the through hole; - creating negative pressure within the intake system and simultaneously - exposing at least one portion on the second side of this panel to a flow of plasma, whereby this portion on the second side contains the through hole.
A drug for use in the prophylaxis and treatment of acute and chronic pancreatitis containing a mixture of different polyprenyl phosphates and polyprenyl pyrophosphates with a number of isoprene units from 7 to 30 wherein the mass ratio of polyprenyl phosphates to polyprenyl pyrophosphates in the mixture is 9:1.
A method performed by a wireless communication node, comprising: configuring an aggregated MAC protocol data unit, A-MPDU; and transmitting a first message to a wireless communication device, wherein the A-MPDU comprises a plurality of A-MPDU subframes, wherein each of the plurality of A-MPDU subframes comprises at least one padding field and a respective MPDU field, wherein the first message comprises an encoded A-MPDU, wherein the encoded A-MPDU is the A-MPDU encoded by an encoder, wherein the length of each of the at least one padding field is determined by a second length of the respective MPDU field and a depth of the encoder, wherein the at least one padding field comprises at least one HARQ padding field, wherein each of the plurality of A-MPDU subframes further comprises a MPDU delimiter field, wherein the MPDU delimiter field comprises a first field and a second field, and wherein the first field indicates a first length of a first HARQ padding field and the second field indicates the second length of the MPDU field in the corresponding A-MPDU subframe. configuring an aggregated MAC protocol data unit, A-MPDU; and transmitting a first message to a wireless communication device, wherein the A-MPDU comprises a plurality of A-MPDU subframes, wherein each of the plurality of A-MPDU subframes comprises at least one padding field and a respective MPDU field, wherein the first message comprises an encoded A-MPDU, wherein the encoded A-MPDU is the A-MPDU encoded by an encoder, wherein the length of each of the at least one padding field is determined by a second length of the respective MPDU field and a depth of the encoder, wherein the at least one padding field comprises at least one HARQ padding field, wherein each of the plurality of A-MPDU subframes further comprises a MPDU delimiter field, wherein the MPDU delimiter field comprises a first field and a second field, and wherein the first field indicates a first length of a first HARQ padding field and the second field indicates the second length of the MPDU field in the corresponding A-MPDU subframe.
An image processing apparatus comprising: a model estimator (751, 752) that models gradient variations of pixel values in an image of a captured object, which is an in-vivo image, according to the pixel values in the image, characterized by an abnormality candidate detector that detects an abnormality candidate area on the object shown in the image according to a difference between a pixel value of each pixel constituting the image and an estimated pixel value of each pixel, the estimated pixel value being determined according to the modeled gradient variations of the pixel values. a model estimator (751, 752) that models gradient variations of pixel values in an image of a captured object, which is an in-vivo image, according to the pixel values in the image, characterized by an abnormality candidate detector that detects an abnormality candidate area on the object shown in the image according to a difference between a pixel value of each pixel constituting the image and an estimated pixel value of each pixel, the estimated pixel value being determined according to the modeled gradient variations of the pixel values.
Method for optically measuring the distance (d) between a substantially scattering object (1, T) and a substantially reflecting object (3, S) by means of a line of light using at least one light source and at least one light receiver, wherein the line of light includes at least one region of the scattering object and also at least one region of the reflecting object, characterized in that both a part-section of the line of light, which is firstly scattered at the scattering object and thereafter is reflected at the reflecting object (light path light source L - funnel T - melt S - camera K), is captured, then a part-section of the line of light, which is firstly reflected at the reflecting object and thereafter scattered at the scattering object (light path light source L - melt S - funnel T - camera K), is captured, and a part-section of the line of light, which is scattered at the scattering object (light path light source L - funnel T - camera K) is captured, wherein the three part-sections are imaged displaced to each other in the light receiver, and this displacement which is proportional to the distance (d), is determined.
A splint to be placed on a section of a patient's body comprising a body element, which has a bearing surface facing the body section, and an outer surface facing away from the bearing surface, and is formed from a flat, flexible material, wherein the body element has a first bearing section and a second bearing section, which are arranged in relation to each other at a splint angle, comprising a support body to dictate the splint angle, wherein the support body lies against the outer surface, characterized in that the support body is formed in the shape of a rod and has at least two rod sections (85, 87) arranged at an angle corresponding to the splint angle between the bearing sections (75, 77) of the body element.
A method for producing a hetero-oligomeric Msp or CsgG pore comprising two different monomers in a specific stoichiometric ratio, comprising: (a) transfecting or transforming a cell with the first different monomer in a first inducible vector and with the second different monomer in a second inducible vector, wherein the first and second inducible vectors are differentially inducible; and (b) differentially inducing the first and second inducible vectors, such that the first and second different monomers are expressed by the cell in a ratio that allows the formation of the hetero-oligomeric pore comprising the first and second different monomers in the specific stoichiometric ratio.
Sodium hyodeoxycholate in polymorphic form FII, characterised in that it has a powder X-ray diffraction spectrum having the following peaks ±0.20 degrees (2 theta): 6.94; 9.84; 13.92; 20.13; 23.30.
A power inverter comprising: an input configured to receive input DC power; an output configured to provide output AC power to a load; a power conversion circuit (200, 412) coupled to the input and configured with a first output line (222, 224, 226) and a second output line to provide an output voltage across the first output line and the second output line, the first output line coupled to the output and configured to provide output AC current at the output; a capacitor (216, 218, 220) coupled to a junction of the first output line and the output, and coupled to the second output line; and a controller coupled to the power conversion circuit and configured to: receive a first current measurement for the first output line; receive a first voltage measurement across the capacitor; calculate a first derivative voltage value based on the first voltage measurement; calculate a first capacitance value for the capacitor at startup of the power device; based on a known load and based on dividing the first current measurement by the first derivative voltage value; determine a second current value through the capacitor; determine a load current based on the first current measurement and the second current value and periodically adjust a capacitance value for the capacitor. an input configured to receive input DC power; an output configured to provide output AC power to a load; a power conversion circuit (200, 412) coupled to the input and configured with a first output line (222, 224, 226) and a second output line to provide an output voltage across the first output line and the second output line, the first output line coupled to the output and configured to provide output AC current at the output; a capacitor (216, 218, 220) coupled to a junction of the first output line and the output, and coupled to the second output line; and a controller coupled to the power conversion circuit and configured to: receive a first current measurement for the first output line; receive a first voltage measurement across the capacitor; calculate a first derivative voltage value based on the first voltage measurement; calculate a first capacitance value for the capacitor at startup of the power device; based on a known load and based on dividing the first current measurement by the first derivative voltage value; determine a second current value through the capacitor; determine a load current based on the first current measurement and the second current value and periodically adjust a capacitance value for the capacitor. receive a first current measurement for the first output line; receive a first voltage measurement across the capacitor; calculate a first derivative voltage value based on the first voltage measurement; calculate a first capacitance value for the capacitor at startup of the power device; based on a known load and based on dividing the first current measurement by the first derivative voltage value; determine a second current value through the capacitor; determine a load current based on the first current measurement and the second current value and periodically adjust a capacitance value for the capacitor.
Medical device in which at least one device part (4, 9, 11) can be changed over between a quiescent state and an operating state, having a person detector (6, 10) and a control unit which, if the person detector (6, 10) detects a person who is present away from the device, switches at least the device part (4, 9, 11) to the operating state, wherein a person who is further away from the device than is required for use of the device can be detected by means of the person detector (6, 10), characterized in that the person detector is in the form of a motion detector and can passively determine movements and/or temperature changes in a particular spatial region by means of infrared radiation, wherein a person who is at least 1 m away from the device can be detected by means of the person detector (6, 10), wherein the control unit initially determines whether the detected person is approaching the device and switches to the operating state only if approach is determined.
An assembly for the propagation of waves of frequencies between 1 GHz and 10 THz, characterized in that it comprises: (a) a waveguide (11, 21) configured to guide said waves, said waveguide (11, 21) being produced from a plastic material, a part of said waves propagating inside said waveguide (11, 21) and another part of said waves propagating outside said waveguide (11, 21), and (b) a protective covering which surrounds said waveguide (11, 21) delimiting one or more spaces between said waveguide (11, 21) and said covering, in which space or spaces the waves propagating outside said waveguide (11, 21) are contained, said protective covering configured to form thus a barrier to protect these waves from disturbances external to the assembly, (c) said protective covering being made of plastic and produced from the same plastic material as said waveguide (11, 21), and wherein said assembly is of a single piece. (a) a waveguide (11, 21) configured to guide said waves, said waveguide (11, 21) being produced from a plastic material, a part of said waves propagating inside said waveguide (11, 21) and another part of said waves propagating outside said waveguide (11, 21), and (b) a protective covering which surrounds said waveguide (11, 21) delimiting one or more spaces between said waveguide (11, 21) and said covering, in which space or spaces the waves propagating outside said waveguide (11, 21) are contained, said protective covering configured to form thus a barrier to protect these waves from disturbances external to the assembly, (c) said protective covering being made of plastic and produced from the same plastic material as said waveguide (11, 21), and wherein said assembly is of a single piece.
Tooth veneer element for veneering a tooth surface, comprising a composite material with at least partially converted polymerizable groups, wherein the tooth veneer element has an outer face and an inner face, wherein the inner face of the tooth veneer element is provided for securing on a tooth, wherein a fraction of as yet unconverted polymerizable groups of the composite material is greater on the inner face than on the outer face of the tooth veneer element, characterized in that the fraction of as yet unconverted polymerizable groups increases continuously from the outer face to the inner face in certain regions.
A synchronization method, comprising: setting, by a network device, a synchronization signal in a first subframe; and sending, by the network device, the first subframe or the first subframe and a second subframe to a user equipment, wherein the first subframe comprises M orthogonal frequency division multiplexing, OFDM, symbols, and the second subframe comprises N OFDM symbols, wherein M and N are positive integers, M > N, and the first subframe and the second subframe are subframes of an unlicensed carrier; characterized by the setting, by a network device, a synchronization signal in a first subframe comprises: setting, by the network device, the synchronization signal in a preset symbol of the first subframe; wherein the synchronization signal comprises at least one of the following: a primary synchronization signal, PSS, or a secondary synchronization signal, SSS. setting, by a network device, a synchronization signal in a first subframe; and sending, by the network device, the first subframe or the first subframe and a second subframe to a user equipment, wherein the first subframe comprises M orthogonal frequency division multiplexing, OFDM, symbols, and the second subframe comprises N OFDM symbols, wherein M and N are positive integers, M > N, and the first subframe and the second subframe are subframes of an unlicensed carrier; characterized by the setting, by a network device, a synchronization signal in a first subframe comprises: setting, by the network device, the synchronization signal in a preset symbol of the first subframe; wherein the synchronization signal comprises at least one of the following: a primary synchronization signal, PSS, or a secondary synchronization signal, SSS. setting, by the network device, the synchronization signal in a preset symbol of the first subframe; wherein the synchronization signal comprises at least one of the following: a primary synchronization signal, PSS, or a secondary synchronization signal, SSS.