mhurhangee/ep-ind-claims huggingface dataset:
An infrared Fourier transform spectrometer, comprising: an optical structure (22, 25) configured to split received light into two paths; two mirrors (21,23) for reflecting the light in the two paths, wherein at least one mirror is movable to perform a scan; the optical structure (22, 25) being further configured to combine the light reflected by the mirrors (21,23), the optical structure (22, 25) forming two outputs (26,28); at least one detector, comprising pixels, at one of the two outputs (26,28), for detecting the light flux at the output, and characterised by at least one color filter mosaic interposed between said one of the two outputs of the optical structure and the at least one detector, wherein the color filter mosaic comprises filters of at least two different color passbands. an optical structure (22, 25) configured to split received light into two paths; two mirrors (21,23) for reflecting the light in the two paths, wherein at least one mirror is movable to perform a scan; the optical structure (22, 25) being further configured to combine the light reflected by the mirrors (21,23), the optical structure (22, 25) forming two outputs (26,28); at least one detector, comprising pixels, at one of the two outputs (26,28), for detecting the light flux at the output, and characterised by at least one color filter mosaic interposed between said one of the two outputs of the optical structure and the at least one detector, wherein the color filter mosaic comprises filters of at least two different color passbands.
A lighting device comprising: a power converting unit for converting direct current power to output power required in loads; a voltage measuring unit for measuring an output voltage from the power converting unit or a value equivalent to the output voltage; a current measuring unit for measuring an output current from the power converting unit or a value equivalent to the output current; and a control unit for controlling the power converting unit, characterized in that, when at least one of the output voltage and the output current of the power converting unit is changed by a specific magnitude per unit hour, the control unit determines that a change in a load status has occurred and controls the power converting unit by switching constant current control in which a measurement value of the current measuring unit is kept at a specific current designated value to constant voltage control in which a measurement value of the voltage measuring unit is kept at a specific voltage designated value. a power converting unit for converting direct current power to output power required in loads; a voltage measuring unit for measuring an output voltage from the power converting unit or a value equivalent to the output voltage; a current measuring unit for measuring an output current from the power converting unit or a value equivalent to the output current; and a control unit for controlling the power converting unit, characterized in that, when at least one of the output voltage and the output current of the power converting unit is changed by a specific magnitude per unit hour, the control unit determines that a change in a load status has occurred and controls the power converting unit by switching constant current control in which a measurement value of the current measuring unit is kept at a specific current designated value to constant voltage control in which a measurement value of the voltage measuring unit is kept at a specific voltage designated value.
A medical device for measuring a condition of a living body, the medical device comprising: a casing including a recess, and a latch part provided in a first side wall of the recess; and a cover member that is in the form of a plate and includes protrusions arranged on two opposing side surfaces of the cover member, and a hook part arranged on a virtual axis being parallel to the two opposing side surfaces of the cover member and passing between one of the protrusions and the other protrusion and configured to engage with the latch part; wherein the casing includes fitted portions provided in two opposing side walls (4a, 4b) of the recess for the protrusions to fit in; wherein the recess is shaped to fit with an outer shape of the cover member at a portion to be covered by the cover member; and wherein a second side wall of the recess is located on the virtual axis when the cover member is attached to the casing and opposes the first side wall where the latch part is provided, and the height of the second side wall is lower than the other side walls (4a, 4b, 4c) of the recess. a casing including a recess, and a latch part provided in a first side wall of the recess; and a recess, and a latch part provided in a first side wall of the recess; and a cover member that is in the form of a plate and includes protrusions arranged on two opposing side surfaces of the cover member, and a hook part arranged on a virtual axis being parallel to the two opposing side surfaces of the cover member and passing between one of the protrusions and the other protrusion and configured to engage with the latch part; protrusions arranged on two opposing side surfaces of the cover member, and a hook part arranged on a virtual axis being parallel to the two opposing side surfaces of the cover member and passing between one of the protrusions and the other protrusion and configured to engage with the latch part; wherein the casing includes fitted portions provided in two opposing side walls (4a, 4b) of the recess for the protrusions to fit in; wherein the recess is shaped to fit with an outer shape of the cover member at a portion to be covered by the cover member; and wherein a second side wall of the recess is located on the virtual axis when the cover member is attached to the casing and opposes the first side wall where the latch part is provided, and the height of the second side wall is lower than the other side walls (4a, 4b, 4c) of the recess.
An acrylic resin film having a thickness of 20 to 300 μm, and the acrylic resin film comprising a resin composition, wherein the resin composition comprises 70 to 95% by mass of an acrylic thermoplastic resin component and 5 to 30% by mass of a crosslinked rubber particle component relative to the mass of the resin composition, the acrylic thermoplastic resin component comprises more than 99% by mass of a methyl methacrylate unit and less than 1% by mass of an alkyl acrylate ester unit relative to the mass of the acrylic thermoplastic resin component; the acrylic thermoplastic resin component comprises a homopolymer comprising a methyl methacrylate unit.
A turbocharger with a turbine to which exhaust gases can be supplied from two scroll ducts (5, 6) which are formed in a housing and between which a partition runs in which a closable scroll connection opening is formed, wherein the scroll connection opening can be closed by a plate-shaped slider which can be pushed along its plate plane (xy) between the scroll ducts (5, 6), with a covering means which can be fastened to the housing, in which covering means the slider is at least half accommodated in the opened state of the scroll connection opening, characterised in that a guide disc is arranged between the covering means and the housing, which disc is pressed by the covering means against the housing and which has a guide gap, the dimension of which in a normal direction to the plate plane of the slider substantially corresponds to that of the slider.
Chuck mechanism of a charge/discharge testing device for flat-rechargeable batteries comprising: a first guide (135, 139) movably mounted on a shaft and coupleable with a battery storage retaining a plurality of flat-rechargeable batteries arranged in parallel, a plurality of chuck-retaining members arranged in parallel along the shaft at equal and adjustable intervals, wherein the chuck-retaining members each have a plurality of chuck members (83, 85), and the chuck members each have a second guide for resiliently positioning each of the chuck units with a predetermined number of corresponding flat-rechargeable batteries in the battery storage, and wherein the first guide includes a fastening arm engageable or connectable with a piece on the battery storage in order to arrange the chuck-retaining members within a dimension of the battery storage width. a first guide (135, 139) movably mounted on a shaft and coupleable with a battery storage retaining a plurality of flat-rechargeable batteries arranged in parallel, a plurality of chuck-retaining members arranged in parallel along the shaft at equal and adjustable intervals, wherein the chuck-retaining members each have a plurality of chuck members (83, 85), and the chuck members each have a second guide for resiliently positioning each of the chuck units with a predetermined number of corresponding flat-rechargeable batteries in the battery storage, and wherein the first guide includes a fastening arm engageable or connectable with a piece on the battery storage in order to arrange the chuck-retaining members within a dimension of the battery storage width.
A holographic camouflage or concealment system with a meshed structure formed by: holographic optical elements configured according to at least one of the following parameters: (a) the wavelength (λ) or colour to be diffracted; (b) the bandwidth (Δλ) or amount of that colour to be diffracted; (c) the diffraction efficiency (η) or percentage to be diffracted with respect to incident light; (d) the direction of diffraction (α); and (e) presence or absence of optical magnification; in such a way that said holographic optical elements form one or more diffractive reflection blocks, whose optical properties are selected according to the optical effect required by a predetermined camouflage or concealment pattern in the visible spectrum and/or in the near infrared and/or in the ultraviolet characterised in that, the meshed structure is a simple structure formed by holographic optical elements with a hexagonal geometry groupable in a regular or semi-regular tessellation, forming fractal structures; or the meshed structure is a fractal structure composed by superimposing two or more hexagonal tessellations, of equal size or of different size; the multilayer tessellation structure being configured to realize holographic camouflage patterns by superimposing optical effects according to the optical properties of each layer of holographic optical elements. holographic optical elements configured according to at least one of the following parameters: (a) the wavelength (λ) or colour to be diffracted; (b) the bandwidth (Δλ) or amount of that colour to be diffracted; (c) the diffraction efficiency (η) or percentage to be diffracted with respect to incident light; (d) the direction of diffraction (α); and (e) presence or absence of optical magnification; in such a way that said holographic optical elements form one or more diffractive reflection blocks, whose optical properties are selected according to the optical effect required by a predetermined camouflage or concealment pattern in the visible spectrum and/or in the near infrared and/or in the ultraviolet characterised in that, the meshed structure is a simple structure formed by holographic optical elements with a hexagonal geometry groupable in a regular or semi-regular tessellation, forming fractal structures; or the meshed structure is a fractal structure composed by superimposing two or more hexagonal tessellations, of equal size or of different size; the multilayer tessellation structure being configured to realize holographic camouflage patterns by superimposing optical effects according to the optical properties of each layer of holographic optical elements.
A system for calculating and storing an average amplitude response for each peak of a mass spectrum during data acquisition, comprising: an ion source that is configured to ionize sample molecules producing a beam of ions; a mass analyzer that includes an analog-to-digital converter detector subsystem configured to analyze the beam of ions; and a processor in communication with the mass analyzer that is configured to: (a) instruct the mass analyzer to analyze N extractions of the ion beam, producing N sub-spectra, (b) for each sub-spectrum of the N sub-spectra, count a nonzero amplitude from the ADC detector subsystem as one ion peak, producing a peak count of one for each ion peak of each sub-spectrum, (c) sum the ADC amplitudes and peak counts of the N sub-spectra, producing a spectrum that includes a summed ADC amplitude and a total count for each ion peak of the spectrum, (d) for each ion peak of the spectrum, calculate an estimated ion count from a Poisson distribution of the peak counts of the N sub-spectra, (e) for each ion peak of the spectrum, calculate and store an average amplitude response by dividing the summed amplitude by the estimated ion count, and (f) execute step (a) again. an ion source that is configured to ionize sample molecules producing a beam of ions; a mass analyzer that includes an analog-to-digital converter detector subsystem configured to analyze the beam of ions; and a processor in communication with the mass analyzer that is configured to: (a) instruct the mass analyzer to analyze N extractions of the ion beam, producing N sub-spectra, (b) for each sub-spectrum of the N sub-spectra, count a nonzero amplitude from the ADC detector subsystem as one ion peak, producing a peak count of one for each ion peak of each sub-spectrum, (c) sum the ADC amplitudes and peak counts of the N sub-spectra, producing a spectrum that includes a summed ADC amplitude and a total count for each ion peak of the spectrum, (d) for each ion peak of the spectrum, calculate an estimated ion count from a Poisson distribution of the peak counts of the N sub-spectra, (e) for each ion peak of the spectrum, calculate and store an average amplitude response by dividing the summed amplitude by the estimated ion count, and (f) execute step (a) again. (a) instruct the mass analyzer to analyze N extractions of the ion beam, producing N sub-spectra, (b) for each sub-spectrum of the N sub-spectra, count a nonzero amplitude from the ADC detector subsystem as one ion peak, producing a peak count of one for each ion peak of each sub-spectrum, (c) sum the ADC amplitudes and peak counts of the N sub-spectra, producing a spectrum that includes a summed ADC amplitude and a total count for each ion peak of the spectrum, (d) for each ion peak of the spectrum, calculate an estimated ion count from a Poisson distribution of the peak counts of the N sub-spectra, (e) for each ion peak of the spectrum, calculate and store an average amplitude response by dividing the summed amplitude by the estimated ion count, and (f) execute step (a) again.
A styrenic block copolymer comprising based on the total weight of the styrenic block copolymer: (i) a diblock structure of A-B, in an amount of 20-50 wt.%; (ii) a triblock structure selected from A-B-A', A-B-A, and mixtures thereof, in an amount of 40-80 wt.%; wherein: each polymer block A and A' is same or different, derived from a vinyl aromatic monomer, and each block has a molecular weight of 8-12 kg/mol; and polymer block B contains more than 90 wt.% polymerized butadiene monomer and polymer block B has a vinyl content of 5 - 20 mol %; the styrenic block copolymer has a polystyrene content of 17-28 wt.%; and wherein the styrenic block copolymer is characterized as having; a melt flow rate of 1-35 g/10 min at 200 °C/ 5kg, measured according to ASTM D1238; and a Shore A hardness of 35-75, measured according to ASTM D 2240. (i) a diblock structure of A-B, in an amount of 20-50 wt.%; (ii) a triblock structure selected from A-B-A', A-B-A, and mixtures thereof, in an amount of 40-80 wt.%; each polymer block A and A' is same or different, derived from a vinyl aromatic monomer, and each block has a molecular weight of 8-12 kg/mol; and polymer block B contains more than 90 wt.% polymerized butadiene monomer and polymer block B has a vinyl content of 5 - 20 mol %; the styrenic block copolymer has a polystyrene content of 17-28 wt.%; and wherein the styrenic block copolymer is characterized as having; a melt flow rate of 1-35 g/10 min at 200 °C/ 5kg, measured according to ASTM D1238; and a Shore A hardness of 35-75, measured according to ASTM D 2240.
A measurement device for measuring a temperature prevailing inside a container, the measurement device comprising: a process connector including a connector body and a fastener configured to be mounted onto a corresponding counterpart surrounding an opening of the container; a measurement unit secured in an opening of the process connector such that a front surface of the measurement unit is facing into the container when the measurement device is mounted on the container, and wherein the measurement unit includes a heat pipe and a temperature sensor, the heat pipe including two thermally conductive interfaces, including a front interface exposable to the temperature to be measured and a second interface in thermal contact with the temperature sensor; and a thermal insulation (21, 33) surrounding the heat pipe and the temperature sensor, characterised in that the measurement unit is flush mounted inside the opening of the process connector in the connector body such that the front surface of the measurement unit is in line with a front surface of the connector body of the process connector surrounding it. a process connector including a connector body and a fastener configured to be mounted onto a corresponding counterpart surrounding an opening of the container; a measurement unit secured in an opening of the process connector such that a front surface of the measurement unit is facing into the container when the measurement device is mounted on the container, and wherein the measurement unit includes a heat pipe and a temperature sensor, the heat pipe including two thermally conductive interfaces, including a front interface exposable to the temperature to be measured and a second interface in thermal contact with the temperature sensor; and a thermal insulation (21, 33) surrounding the heat pipe and the temperature sensor, characterised in that the measurement unit is flush mounted inside the opening of the process connector in the connector body such that the front surface of the measurement unit is in line with a front surface of the connector body of the process connector surrounding it.
A waveguide gasket arrangement (1, 1') arranged for electrically sealing a waveguide interface between a first waveguide end and a second waveguide end, where the waveguide gasket arrangement (1, 1') comprises a first plurality of electrically conducting members connected to a first common structure along a first circumference, wherein the waveguide gasket arrangement comprises at least one intermediate electrically conducting structure (15; 24, 25) and a second plurality of electrically conducting members connected to a second common structure along a second circumference, where, for each one of the first plurality of electrically conducting members and the second plurality of electrically conducting members there is: - a corresponding first sub-plurality of electrically conducting members (11, 12) which are intended to contact a waveguide end (3, 4), and - a second sub-plurality of electrically conducting members (13, 14) which are intended to contact a corresponding intermediate electrically conducting structure (15; 24, 25) that is positioned between the first plurality of electrically conducting members and the second plurality of electrically conducting members. - a corresponding first sub-plurality of electrically conducting members (11, 12) which are intended to contact a waveguide end (3, 4), and - a second sub-plurality of electrically conducting members (13, 14) which are intended to contact a corresponding intermediate electrically conducting structure (15; 24, 25) that is positioned between the first plurality of electrically conducting members and the second plurality of electrically conducting members.
A biochip, comprising: a semiconductor wafer substrate having at least one bead array within respective delineated chip regions positioned thereon and having separating boundaries between said delineated chip regions, wherein said at least one bead array comprises a set of biofunctionalized beads secured on the surface of the semiconductor wafer substrate by raised or lowered surface structures, and wherein the biofunctionalized beads are optically encoded, wherein the raised or lowered surface structures are each sized so as to accommodate not more than one bead. a semiconductor wafer substrate having at least one bead array within respective delineated chip regions positioned thereon and having separating boundaries between said delineated chip regions, wherein said at least one bead array comprises a set of biofunctionalized beads secured on the surface of the semiconductor wafer substrate by raised or lowered surface structures, and wherein the biofunctionalized beads are optically encoded, wherein the raised or lowered surface structures are each sized so as to accommodate not more than one bead.
A medical apparatus system comprising a mobile component of a medical apparatus comprising an integrated accumulator for providing electric power for a control device and for electric actuators of the mobile component of the medical apparatus, and an interface configured to automatically connect a power supply device and the accumulator only at a stationary connecting location, wherein the interface comprises a room-side interface component and a collaborating medical apparatus-side interface component (10"), wherein the room-side interface component comprises an underfloor component and one or more first induction coils located in a floor, and the apparatus-side interface component (10") is located in support structures of the mobile component of the medical apparatus, characterized in that the mobile component of the medical apparatus comprises jack-up stamps as the support structures for securing a safe footing of the mobile component of the medical apparatus, one or more second induction coils are arranged at the support structures.
A printing system for cut sheets, the printing system comprising a control unit for controlling the printing of image data on a plurality of sheets comprising at least one speciality sheet intended to be one-sided printed and at least one duplex sheet intended to be two-sided printed, and for scheduling the plurality of sheets in a printing order, a paper path comprising a duplex printing loop, a first turn station arranged in the duplex printing loop for turning a sheet of the plurality if both sides of the sheet are scheduled to be printed in two passes along a print engine arranged in the duplex printing loop and configured to dispose marking material on the sheets according to the image data on one side per pass, wherein the speciality sheet has predetermined unexchangeable opposite edges, the control unit comprises a scheduler to schedule a sheet for a first pass along the print engine and for a second pass along the print engine by using the duplex printing loop and a logic module to determine whether or not the sheet is a speciality sheet, the printing system comprises a second turn station arranged in the paper path of the printing system near an inlet of an output section for turning the sheet before laying the sheet off in an output holder (52, 55) of the output section when activated, and the control unit is configured, for a sheet determined not to be a speciality sheet by means of the logic module, to activate the first turn station to turn the sheet after the first pass and before the second pass of the sheet along the print engine, and, for a sheet determined to be a speciality sheet by means of the logic module, to deactivate the first turn station as to behave as a pass-through for the sheet after the first pass and before the second pass of the sheet along the print engine.