mhurhangee/ep-ind-claims huggingface dataset:
A device (10, 80) for preserving corneal graft tissue, the device comprising: a first chamber (14, 92); a second chamber (18, 94); and a corneal graft tissue suspension assembly that is configured to retain and suspend the corneal graft tissue between the first chamber (14, 92) and the second chamber (18, 94) such that the first chamber (14, 92) is fluidly isolated from the second chamber (18, 94), the corneal graft tissue suspension assembly including: a first element; and a second element, the first element and the second element being vertically and horizontally aligned with each other when the device is assembled, the corneal graft tissue suspension assembly being configured to retain and suspend the corneal graft tissue between at least a portion of the first element and at least a portion of the second element, characterized in that the device includes a gap between the first element and the second element when the device is assembled. a first chamber (14, 92); a second chamber (18, 94); and a corneal graft tissue suspension assembly that is configured to retain and suspend the corneal graft tissue between the first chamber (14, 92) and the second chamber (18, 94) such that the first chamber (14, 92) is fluidly isolated from the second chamber (18, 94), the corneal graft tissue suspension assembly including: a first element; and a second element, the first element and the second element being vertically and horizontally aligned with each other when the device is assembled, the corneal graft tissue suspension assembly being configured to retain and suspend the corneal graft tissue between at least a portion of the first element and at least a portion of the second element, a first element; and a second element, the first element and the second element being vertically and horizontally aligned with each other when the device is assembled, the corneal graft tissue suspension assembly being configured to retain and suspend the corneal graft tissue between at least a portion of the first element and at least a portion of the second element, characterized in that the device includes a gap between the first element and the second element when the device is assembled.
A method for detecting bacteria in a sample comprising a platelet concentrate, the method comprising: placing the sample in a dynamic light scattering instrument; obtaining DLS measurements from the sample of the platelet concentrate by illuminating the sample with incident light and by collecting scattered light;; wherein the method is characterized in that it comprises: determining a particle size distribution based on the scattered light, wherein the particle size distribution comprises at least distinct first and second populations of particles corresponding to first and second particles in the sample having different particle sizes, wherein the first population corresponds to platelets; identifying the second population of particles as being distinct from the first population of particles, wherein the second population corresponds to bacteria; estimating a quantity of bacteria in the sample from an intensity of the scattered light corresponding to the second population of particles; and determining that the sample is bacterially contaminated when the quantity of bacteria exceeds a predetermined threshold of bacterial contamination. placing the sample in a dynamic light scattering instrument; obtaining DLS measurements from the sample of the platelet concentrate by illuminating the sample with incident light and by collecting scattered light;; wherein the method is characterized in that it comprises: determining a particle size distribution based on the scattered light, wherein the particle size distribution comprises at least distinct first and second populations of particles corresponding to first and second particles in the sample having different particle sizes, wherein the first population corresponds to platelets; identifying the second population of particles as being distinct from the first population of particles, wherein the second population corresponds to bacteria; estimating a quantity of bacteria in the sample from an intensity of the scattered light corresponding to the second population of particles; and determining that the sample is bacterially contaminated when the quantity of bacteria exceeds a predetermined threshold of bacterial contamination. determining a particle size distribution based on the scattered light, wherein the particle size distribution comprises at least distinct first and second populations of particles corresponding to first and second particles in the sample having different particle sizes, wherein the first population corresponds to platelets; identifying the second population of particles as being distinct from the first population of particles, wherein the second population corresponds to bacteria; estimating a quantity of bacteria in the sample from an intensity of the scattered light corresponding to the second population of particles; and determining that the sample is bacterially contaminated when the quantity of bacteria exceeds a predetermined threshold of bacterial contamination.
Support vehicle for performing support operations in an automated storage and retrieval system, where the support vehicle comprises: - a vehicle body; - a drive system comprising wheels (42, 44) provided in a lower part of the vehicle body, the drive system being configured to drive the support vehicle along a track system of the automated storage and retrieval system; - a connection system provided on a first side of the support vehicle; characterized in that - the connection system comprises a connector member protruding through an aperture of the vehicle body; - the connection system comprises an actuator for moving the connector member in the aperture in relation to the vehicle body; - the connection system is connectable to and disconnectable from a connection interface; - the support vehicle comprises an additional support unit (60; 60a; 60b; 60c; 60d), where the connection interface is fixed to the additional support unit (60; 60a; 60b; 60c; 60d); - the additional support unit (60; 60a; 60b; 60c; 60d) is a counterweight unit for balancing the support vehicle. - a vehicle body; - a drive system comprising wheels (42, 44) provided in a lower part of the vehicle body, the drive system being configured to drive the support vehicle along a track system of the automated storage and retrieval system; - a connection system provided on a first side of the support vehicle; - the connection system comprises a connector member protruding through an aperture of the vehicle body; - the connection system comprises an actuator for moving the connector member in the aperture in relation to the vehicle body; - the connection system is connectable to and disconnectable from a connection interface; - the support vehicle comprises an additional support unit (60; 60a; 60b; 60c; 60d), where the connection interface is fixed to the additional support unit (60; 60a; 60b; 60c; 60d); - the additional support unit (60; 60a; 60b; 60c; 60d) is a counterweight unit for balancing the support vehicle.
A cable harness connector for modular cable harnesses comprising: - a carrier, wherein two or more segment connections (832, 834, 836, 838, 840, 842) are provided to accommodate in each case one cable harness module (802, 804, 806, 808, 810, 812), - at least one connection arranged on the carrier for a control unit (MCM1, MCM1a), and - at least one device arranged on the carrier for connecting lines of the cable harness module (802, 804, 806, 808, 810, 812) to the at least one connection for the control device (MCM1, MCM1a) and for connecting lines of different cable harness modules (802, 804, 806, 808, 810, 812), characterized in that the connection for the control device (MCM1, MCM1a) as a plug connector lies on a first side of the carrier of the cable harness connector facing a control device (MCM1, MCM1a) in the installed state and engages in a corresponding connection of the control device (MCM1, MCM1a). - a carrier, wherein two or more segment connections (832, 834, 836, 838, 840, 842) are provided to accommodate in each case one cable harness module (802, 804, 806, 808, 810, 812), - at least one connection arranged on the carrier for a control unit (MCM1, MCM1a), and - at least one device arranged on the carrier for connecting lines of the cable harness module (802, 804, 806, 808, 810, 812) to the at least one connection for the control device (MCM1, MCM1a) and for connecting lines of different cable harness modules (802, 804, 806, 808, 810, 812),
Composition, especially a cosmetic composition, characterized in that it comprises an aqueous phase, a lipogel phase, at least one monoglyceride and at least one tartaric ester of monoglyceride, and at least one coated pigment and/or at least one coated mineral filler.
Starting sheet material adapted for forming a reflector (2, 20, 200) for a lighting device, the starting sheet material comprising: a flat reflective sheet material shaped as a sector of an annulus bendable into a parabolic reflector or a truncated cone reflector, the flat reflective sheet material comprising a first surface, a second surface, a first edge shaped as a segment of a circle with a first radius and a second edge shaped as a segment of a circle with a second radius, the second radius being smaller than the first radius, a third edge and a fourth edge, the third edge and the fourth edge extending between said first edge and said second edge, wherein optical structures are provided on at least a part of at least one of the first surface and the second surface, said optical structures enabling collimation and/or beam shaping of incident light, said optical structures being applied to the flat reflective sheet material along a direction perpendicular to the radial direction of the flat reflective sheet material, characterised in that said optical structures are optical structures enabling reflection of at least a portion of the incident light at the flat reflective sheet material after two refractions on the optical structures. a flat reflective sheet material shaped as a sector of an annulus bendable into a parabolic reflector or a truncated cone reflector, the flat reflective sheet material comprising a first surface, a second surface, a first edge shaped as a segment of a circle with a first radius and a second edge shaped as a segment of a circle with a second radius, the second radius being smaller than the first radius, a third edge and a fourth edge, the third edge and the fourth edge extending between said first edge and said second edge, wherein optical structures are provided on at least a part of at least one of the first surface and the second surface, said optical structures enabling collimation and/or beam shaping of incident light, said optical structures being applied to the flat reflective sheet material along a direction perpendicular to the radial direction of the flat reflective sheet material, characterised in that said optical structures are optical structures enabling reflection of at least a portion of the incident light at the flat reflective sheet material after two refractions on the optical structures.
An electrically-powered vehicle, comprising: a rotating electric machine (MG2, MG) for generating a vehicle driving force; a power storage device mounted in the vehicle; a power control unit for performing power conversion between said power storage device and said rotating electric machine; and a control device for controlling traveling of the vehicle, said control device including an upper limit vehicle speed setting unit for variably setting an upper limit vehicle speed (VMmax) for traveling of the vehicle using only an output of said rotating electric machine, the upper limit vehicle speed (VMmax) is based on an output current (Ib) of said power storage device, said upper limit vehicle speed setting unit being configured to set said upper limit vehicle speed lower when said output current is high than that when said output current is low, characterized in that said control device further includes a current load estimation unit for calculating a current load parameter indicating a thermal load on equipment due to passage of said output current (Ib) of said power storage device, based on said output current, wherein said upper limit vehicle speed setting unit is configured to variably set said upper limit vehicle speed (VMmax) at least based on said calculated current load parameter. a rotating electric machine (MG2, MG) for generating a vehicle driving force; a power storage device mounted in the vehicle; a power control unit for performing power conversion between said power storage device and said rotating electric machine; and a control device for controlling traveling of the vehicle, said control device including an upper limit vehicle speed setting unit for variably setting an upper limit vehicle speed (VMmax) for traveling of the vehicle using only an output of said rotating electric machine, the upper limit vehicle speed (VMmax) is based on an output current (Ib) of said power storage device, said upper limit vehicle speed setting unit being configured to set said upper limit vehicle speed lower when said output current is high than that when said output current is low,
A method for operating a vehicular near-to-eye display screen operable within an operational range limit, the method comprising: rendering imagery on the NTE display screen when the NTE display is within a predefined visibility range, the predefined visibility range being a cubic space defining spatial limits for the NTE display and within the operational range limit; and adjusting a luminance of at least a portion of the rendered imagery based upon the position of the NTE display, wherein a luminance of at least a portion of the imagery is reduced in response to the NTE display screen being moved from within the cubic space of the predefined visibility range to outside of the cubic space of the predefined visibility range while remaining within the operational range limit. rendering imagery on the NTE display screen when the NTE display is within a predefined visibility range, the predefined visibility range being a cubic space defining spatial limits for the NTE display and within the operational range limit; and adjusting a luminance of at least a portion of the rendered imagery based upon the position of the NTE display, wherein a luminance of at least a portion of the imagery is reduced in response to the NTE display screen being moved from within the cubic space of the predefined visibility range to outside of the cubic space of the predefined visibility range while remaining within the operational range limit.
A reduced pressure adapter for connecting a reduced pressure source to a porous pad, the adapter comprising: a conduit housing (62, 130) having a recessed region (54, 126) defining an entry surface; a primary conduit through the conduit housing (62, 130) in fluid communication with a primary port on the entry surface; at least one ancillary conduit through the conduit housing (62, 130) in fluid communication with an ancillary port (56, 58) on the entry surface; channels (42, 44) positioned on the entry surface to direct liquid away from the ancillary port (56, 58) and into the primary port; the adapter being characterized in that it further comprises: a base (50, 52, 124) attached to the conduit housing (62, 130) such that an aperture of the base (50, 52, 124) surrounds the recessed region (54, 126); and radial channels positioned on the base (50, 52, 124) to direct liquid from a periphery of the base (50, 52, 124) away from the ancillary conduit. a conduit housing (62, 130) having a recessed region (54, 126) defining an entry surface; a primary conduit through the conduit housing (62, 130) in fluid communication with a primary port on the entry surface; at least one ancillary conduit through the conduit housing (62, 130) in fluid communication with an ancillary port (56, 58) on the entry surface; channels (42, 44) positioned on the entry surface to direct liquid away from the ancillary port (56, 58) and into the primary port; the adapter being characterized in that it further comprises: a base (50, 52, 124) attached to the conduit housing (62, 130) such that an aperture of the base (50, 52, 124) surrounds the recessed region (54, 126); and radial channels positioned on the base (50, 52, 124) to direct liquid from a periphery of the base (50, 52, 124) away from the ancillary conduit. a base (50, 52, 124) attached to the conduit housing (62, 130) such that an aperture of the base (50, 52, 124) surrounds the recessed region (54, 126); and radial channels positioned on the base (50, 52, 124) to direct liquid from a periphery of the base (50, 52, 124) away from the ancillary conduit.
Method for storage and/or transport of solid lactide particles in a container, characterised in that the container is a big-bag comprising at least one flexible layer of a plastic material, a said method comprising the following steps: - filling a big-bag comprising at least one flexible layer of a plastic material with a chemically inert gas, - inserting the lactide particles into the big-bag, - evacuating the big-bag, - closing the big-bag, - storing and/or transporting the lactide particles for a period of time in the big bag, and - removing the lactide particles from the big-bag. - filling a big-bag comprising at least one flexible layer of a plastic material with a chemically inert gas, - inserting the lactide particles into the big-bag, - evacuating the big-bag, - closing the big-bag, - storing and/or transporting the lactide particles for a period of time in the big bag, and - removing the lactide particles from the big-bag.
Process for the production of a fibre-composite material, comprising the following steps: a) a fibre layer is introduced by way of a spreader device and thus spread to a width greater than that of the final product, at least by a factor of 1.2, where the extent of spreading of the fibre layer is such that its average thickness corresponds to 1 to 50 times the filament diameter; b) a melt is applied by means of at least one applicator nozzle to the spread material; c) by virtue of cross-section-narrowing, the mould brings the width of the wetted fibre layer at least to the cross section with which the product leaves the take-off die; d) a radius then deflects the wetted fibres by an angle of 5 to 60°; e) a relaxation zone renders the fibre distribution more uniform to give a uniform height; f) the first shaping is achieved by a take-off die at the end of the mould. a) a fibre layer is introduced by way of a spreader device and thus spread to a width greater than that of the final product, at least by a factor of 1.2, where the extent of spreading of the fibre layer is such that its average thickness corresponds to 1 to 50 times the filament diameter; b) a melt is applied by means of at least one applicator nozzle to the spread material; c) by virtue of cross-section-narrowing, the mould brings the width of the wetted fibre layer at least to the cross section with which the product leaves the take-off die; d) a radius then deflects the wetted fibres by an angle of 5 to 60°; e) a relaxation zone renders the fibre distribution more uniform to give a uniform height; f) the first shaping is achieved by a take-off die at the end of the mould.
An ultra-high molecular weight polyethylene fiber with an ultra-high cut resistance, comprising: an ultra-high molecular weight polyethylene matrix, and carbon fiber powder particles dispersed in the ultra high-molecular weight polyethylene matrix, wherein a content of the carbon fiber powder particles is 0.25-10 wt% and the carbon fiber powder particles are activated by plasma treatment.
A signal processing apparatus comprising: a memory configured to store instructions; and a processor configured to execute the instructions to: obtain (310; 610; 710) a bio-signal; obtain (320; 620; 730) a frequency band spectrum by applying a Fast Fourier Transform, FFT, to the obtained bio-signal; remove (330; 630; 740) noise from the obtained spectrum by applying a first filter and a second filter, which are different from each other, to the obtained frequency band spectrum; based on removing the noise from the frequency band spectrum, recover (640; 750) the bio-signal by applying an inverse FFT to the spectrum; and estimating (650: 760) bio-information based on the recovered bio-signal, characterized in that the first filter comprises a Gaussian-based asymmetric window filter; and the second filter comprises a Gaussian-based symmetric window filter (21; 22; 24). a memory configured to store instructions; and a processor configured to execute the instructions to: obtain (310; 610; 710) a bio-signal; obtain (320; 620; 730) a frequency band spectrum by applying a Fast Fourier Transform, FFT, to the obtained bio-signal; remove (330; 630; 740) noise from the obtained spectrum by applying a first filter and a second filter, which are different from each other, to the obtained frequency band spectrum; based on removing the noise from the frequency band spectrum, recover (640; 750) the bio-signal by applying an inverse FFT to the spectrum; and estimating (650: 760) bio-information based on the recovered bio-signal, characterized in that the first filter comprises a Gaussian-based asymmetric window filter; and the second filter comprises a Gaussian-based symmetric window filter (21; 22; 24). obtain (310; 610; 710) a bio-signal; obtain (320; 620; 730) a frequency band spectrum by applying a Fast Fourier Transform, FFT, to the obtained bio-signal; remove (330; 630; 740) noise from the obtained spectrum by applying a first filter and a second filter, which are different from each other, to the obtained frequency band spectrum; based on removing the noise from the frequency band spectrum, recover (640; 750) the bio-signal by applying an inverse FFT to the spectrum; and estimating (650: 760) bio-information based on the recovered bio-signal, characterized in that the first filter comprises a Gaussian-based asymmetric window filter; and the second filter comprises a Gaussian-based symmetric window filter (21; 22; 24).
An antibody or an antigen-binding portion thereof binding to PD-L1, comprising: a heavy chain variable domain comprising SEQ ID NO: 2 and a light chain variable region comprising amino acid 1-111 of SEQ ID NO: 1.
A method for producing a semiconductor module having at least two semiconductor chips (12, 14) or wafers arranged above one another, in which: - a metallic elevation made from electrically conductive ink is created on a first of the semiconductor chips or wafers using printing technology by means of an aerosol jet printing method, in that layers are printed on top of one another multiple times, and - the second semiconductor chip or wafer is mounted on the first semiconductor chip or wafer in such a manner that the two semiconductor chips or wafers are arranged above one another and a contact on a rear side of the second semiconductor chip or wafer is electrically contacted by means of the metallic elevation. - a metallic elevation made from electrically conductive ink is created on a first of the semiconductor chips or wafers using printing technology by means of an aerosol jet printing method, in that layers are printed on top of one another multiple times, and - the second semiconductor chip or wafer is mounted on the first semiconductor chip or wafer in such a manner that the two semiconductor chips or wafers are arranged above one another and a contact on a rear side of the second semiconductor chip or wafer is electrically contacted by means of the metallic elevation.