mhurhangee/ep-ind-claims huggingface dataset:
Method for encapsulating a microelectronic component arranged on a substrate comprising at least the following successive steps: a) supplying a sealing cell including: a bottom with a receiving zone for the substrate and a peripheral zone surrounding the receiving zone, a side wall formed by an internal face, an external face and an upper face, the upper face being configured to support the cap facing the receiving zone, an opening, arranged in the bottom of the cell, in the side wall, or in the cap, the opening being configured to be connected to a pumping system, in such a way as to be able to place under controlled atmosphere a cavity delimited by the side wall, the bottom and the cap, b) depositing a sealing bead, on the substrate and/or on the face of the cap intended to be facing the substrate, c) positioning the substrate provided with the microelectronic component to encapsulate the receiving zone of the sealing cell, and positioning the cap on the upper face of the sealing cell, the cap being based on a material based on glass or the family of glasses, or silicon or ceramic, d) placing under controlled atmosphere the cavity formed by the cap and the sealing cell, via the opening, in such a way as to make the cap bend towards the substrate, until the sealing bead is placed in contact both with the substrate and with the cap, e) localised heating of the sealing bead, in such a way as to seal the cap to the substrate. a) supplying a sealing cell including: a bottom with a receiving zone for the substrate and a peripheral zone surrounding the receiving zone, a side wall formed by an internal face, an external face and an upper face, the upper face being configured to support the cap facing the receiving zone, an opening, arranged in the bottom of the cell, in the side wall, or in the cap, the opening being configured to be connected to a pumping system, in such a way as to be able to place under controlled atmosphere a cavity delimited by the side wall, the bottom and the cap, b) depositing a sealing bead, on the substrate and/or on the face of the cap intended to be facing the substrate, c) positioning the substrate provided with the microelectronic component to encapsulate the receiving zone of the sealing cell, and positioning the cap on the upper face of the sealing cell, the cap being based on a material based on glass or the family of glasses, or silicon or ceramic, d) placing under controlled atmosphere the cavity formed by the cap and the sealing cell, via the opening, in such a way as to make the cap bend towards the substrate, until the sealing bead is placed in contact both with the substrate and with the cap, e) localised heating of the sealing bead, in such a way as to seal the cap to the substrate.
Polypropylene composition having a melt flow rate MFR 2 (230°C / 2.16 kg) measured according to ISO 1133 in the range from 1.0 to 6.0 g/10min, and a melting temperature Tm measured by differential scanning calorimetry in the range from 120 to 145°C, the polypropylene composition comprising an amount of a xylene cold soluble fraction determined according to ISO 16152 (25°C) in the range from 5 to 30 wt.-%, based on the total weight of the composition, the xylene cold soluble fraction having an intrinsic viscosity determined according to DIN ISO 162/1 (in decalin at 135°C) in the range from 1.2 to 3.0 dl/g and comprising comonomer units derived from i) ethylene in an amount from 4.0 to 50 wt.-%, based on the total weight of the xylene cold soluble fraction, and ii) alpha-hexene in an amount from 0.5 to 10 wt.-%, based on the total weight of the xylene cold soluble fraction. i) ethylene in an amount from 4.0 to 50 wt.-%, based on the total weight of the xylene cold soluble fraction, and ii) alpha-hexene in an amount from 0.5 to 10 wt.-%, based on the total weight of the xylene cold soluble fraction.
A shift register comprising a plurality of cells that are physically arranged out of logical order, said cells comprising a respective shifting unit cell, each respective shifting unit cell comprising respective local register space, each respective shifting unit cell further comprising circuitry having inputs to receive shifted data and outputs to transmit shifted data, wherein different ones of said inputs are assigned a different respective shift amount and different ones of said outputs are assigned a different respective shift amount, wherein: i) cells physically located between first and second logically ordered cells comprise a respective non-shifting unit cell comprising circuitry configured to not perform any logical shift, each respective non-shifting unit cell comprising a plurality of inputs and outputs, each input and output being assigned a respective shift amount and each input feeding the output having the same respective shift amount; ii) circuitry of shifting unit cells coupled to receive shifted data transmitted by an immediately preceding logically ordered cell comprises circuitry for writing into the respective local register space data received at an input assigned an amount of shift specified in a shift command being executed by the shift register; and iii) circuitry of shifting unit cells coupled to transmit shifted data to an immediately following logically ordered cell comprises circuitry to transmit data from an output assigned an incremented shift amount from a shift amount of an input that the data was received on, wherein said cells are arranged such that said shift register physically propagates data in a closed loop through said shift register in order at which said cells are physically laid out, and wherein each unit cell has the same number of inputs and outputs, each respective input and output being assigned a respective incrementally higher shift amount up to a maximum shift amount of the shift register. i) cells physically located between first and second logically ordered cells comprise a respective non-shifting unit cell comprising circuitry configured to not perform any logical shift, each respective non-shifting unit cell comprising a plurality of inputs and outputs, each input and output being assigned a respective shift amount and each input feeding the output having the same respective shift amount; ii) circuitry of shifting unit cells coupled to receive shifted data transmitted by an immediately preceding logically ordered cell comprises circuitry for writing into the respective local register space data received at an input assigned an amount of shift specified in a shift command being executed by the shift register; and iii) circuitry of shifting unit cells coupled to transmit shifted data to an immediately following logically ordered cell comprises circuitry to transmit data from an output assigned an incremented shift amount from a shift amount of an input that the data was received on,
A composite container lid which comprises an inner cap fitted onto the container mouth portion by screw engagement, an over-cap fitted onto the inner cap, and an IC tag; wherein said over-cap has a top panel and a skirt descending from the circumferential edge of the top panel; said inner cap has a top plate and a cylindrical wall descending from the circumferential edge of the top plate and having a thread formed in the inner surface thereof to come into screw engagement with the outer surface of the container mouth portion; an engaging means is provided between the inner surface of the skirt of said over-cap and the outer surface of the cylindrical wall of said inner cap to transmit the turn of the over-cap fitted onto said inner cap to said inner cap; and said IC tag is attached to said inner cap or to said over-cap in a manner that a circuit inclusive of an information transmission/reception antenna connected to an IC chip in said IC tag is broken by a motion of said over-cap relative to said inner cap caused at the time of unsealing said inner cap fitted onto the container mouth portion; wherein: said IC tag is attached to either the lower surface of the top panel of said over-cap or to the upper surface of the top plate of said inner cap; and characterized in that, before said motion a gap is maintained between the upper surface of the top plate of said inner cap and the lower surface of the top panel of said over-cap fitted onto said inner cap and in that a cutter is formed on said inner cap or on said over-cap to break the circuit of said IC tag. said IC tag is attached to either the lower surface of the top panel of said over-cap or to the upper surface of the top plate of said inner cap; and characterized in that, before said motion a gap is maintained between the upper surface of the top plate of said inner cap and the lower surface of the top panel of said over-cap fitted onto said inner cap and in that a cutter is formed on said inner cap or on said over-cap to break the circuit of said IC tag.
A method of calibrating an additive manufacturing system, the method comprising: comparing a digital representation of one or more calibration marks to a calibration-CAD model comprising one or more model calibration marks, the digital representation of the one or more calibration marks having been obtained using a vision system, and the one or more calibration marks having been printed on a calibration surface according to the calibration-CAD model using an additive manufacturing machine; and applying a calibration adjustment to one or more CAD models (800, 850) based at least in part on the comparison, the calibration adjustment configured to align the one or more CAD models (800, 850) with one or more coordinates of the additive manufacturing system. comparing a digital representation of one or more calibration marks to a calibration-CAD model comprising one or more model calibration marks, the digital representation of the one or more calibration marks having been obtained using a vision system, and the one or more calibration marks having been printed on a calibration surface according to the calibration-CAD model using an additive manufacturing machine; and applying a calibration adjustment to one or more CAD models (800, 850) based at least in part on the comparison, the calibration adjustment configured to align the one or more CAD models (800, 850) with one or more coordinates of the additive manufacturing system.
Perforated disk having the following features: - the perforated disk made of metal has main surfaces (2, 3) on disk sides facing away, - in the region of the one first main surface the perforated disk is made of aluminum or an aluminum alloy, - in the region of the other second main surface the perforated disk exhibits a layer of copper or a copper alloy, characterized by the following feature: - the perforated disk has in the region of the disk side exhibiting the first main surface elevations which project beyond the first main surface of the perforated disk on this disk side. - the perforated disk is made of aluminum or an aluminum alloy, - the elevations are configured as embossments, wherein the perforated disk has depressions produced during forming on the disk side with the second main surface, and embossments produced during forming on the disk side exhibiting the first main surface. - the perforated disk made of metal has main surfaces (2, 3) on disk sides facing away, - in the region of the one first main surface the perforated disk is made of aluminum or an aluminum alloy, - in the region of the other second main surface the perforated disk exhibits a layer of copper or a copper alloy, characterized by the following feature: - the perforated disk has in the region of the disk side exhibiting the first main surface elevations which project beyond the first main surface of the perforated disk on this disk side. - the perforated disk is made of aluminum or an aluminum alloy, - the elevations are configured as embossments, wherein the perforated disk has depressions produced during forming on the disk side with the second main surface, and embossments produced during forming on the disk side exhibiting the first main surface. - the perforated disk has in the region of the disk side exhibiting the first main surface elevations which project beyond the first main surface of the perforated disk on this disk side. - the perforated disk is made of aluminum or an aluminum alloy, - the elevations are configured as embossments, wherein the perforated disk has depressions produced during forming on the disk side with the second main surface, and embossments produced during forming on the disk side exhibiting the first main surface.
A prefilled syringe filling machine, comprising an external package removal area, an internal package removal area, a filling and stoppering area, a rubber plug buffer area and a conveyor belt, characterized in that the external package removal area has different cleanliness level requirements from the internal package removal area and the filling and stoppering area; wherein the conveyor belt penetrates through the internal package removal area from the external package removal area without penetrating through the filling and stoppering area, and the filling and stoppering area being arranged to be adjacent to the internal package removal area, wherein a first transfer device is arranged in the internal package removal area; a second transfer device is arranged in the filling and stoppering area; a material delivery port is arranged between the filling and stoppering area and the internal package removal area; at work, the first transfer device transfers materials on the conveyor belt to the material delivery port so as to deliver the materials to the second transfer device, the second transfer device carries the materials and, after accomplishing filling and stoppering, transfers the materials to the material delivery port so as to deliver the materials to the first transfer device, and the first transfer device transfers the materials onto the conveyor belt.
A high-strength steel sheet having excellent fatigue properties, elongation and collision properties, comprising: in terms of percent by mass, 0.03 to 0.10% of C; 0.01 to 1.5% of Si; 1.0 to 2.5% of Mn; 0.1 % or less of P; 0.02% or less of S; 0.01 to 1.2% of Al; 0.06 to 0.15% of Ti; 0.01% or less of N; and optionally one or more selected from the group consisting of 0.005 to 0.1% of Nb; 0.005 to 0.2% of Mo; 0.005 to 0.2% of V; 0.0005 to 0.005% of Ca; 0.0005 to 0.005% of Mg; 0.0005 to 0.005% of B; 0.005 to 1% of Cr; 0.005 to 1% of Cu; and 0.005 to 1% Ni; with the balance being iron and inevitable impurities, wherein a tensile strength is in a range of 590 MPa or more, and a ratio of the yield strength to the tensile strength is in a range of 0.80 or more, a microstructure comprises bainite at an area ratio of 40% or more and the balance being either one or both of ferrite and martensite, a density of Ti(C,N) precipitates having sizes of 10 nm or smaller is in a range of 10 10 precipitates/mm 3 or more, and a ratio (Hvs/Hvc) of a hardness (Hvs) at a depth of 20 μm from a surface to a hardness (Hvc) at a center of a sheet thickness is in a range of 0.85 or more. 0.03 to 0.10% of C; 0.01 to 1.5% of Si; 1.0 to 2.5% of Mn; 0.1 % or less of P; 0.02% or less of S; 0.01 to 1.2% of Al; 0.06 to 0.15% of Ti; 0.01% or less of N; and 0.005 to 0.1% of Nb; 0.005 to 0.2% of Mo; 0.005 to 0.2% of V; 0.0005 to 0.005% of Ca; 0.0005 to 0.005% of Mg; 0.0005 to 0.005% of B; 0.005 to 1% of Cr; 0.005 to 1% of Cu; and 0.005 to 1% Ni;
A catheter system comprising an apparatus having a four-wire interface including separate positive and negative source connectors across which is produced an excitation signal and separate positive and negative sense connectors, and a catheter comprising an elongated shaft having a proximal end and a distal end and an electrode disposed at said distal end, said electrode being configured for electrical connection to said positive source connector through a source lead electrically connected to said electrode to receive said excitation signal from said apparatus, said electrode being further configured for electrical connection to said positive sense connector through a sense lead electrically connected to said electrode; a source return (56 1) configured for electrical connection to said negative source connector; a sense return (56 2) separate and different from said source return configured for electrical connection to said negative sense connector that is separate from said negative source connector; wherein said apparatus is configured to determine an impedance between said sense connectors.
A transparent, elastic, and biocompatible 1-component silicone imprintable by means of a stereolithographic process, namely a Digital Light Processing method, for additive manufacturing, at least comprising: a) 25-75 % by weight of a monomeric or oligomeric dimethacrylate based on siloxane urethanes having a viscosity of < 100 Pa·s, b) 20-50 % by weight of one or more monomeric/oligomeric cyclic methacrylates having a viscosity of < 0.5 Pa·s, c) 1-25 % by weight of silicone oil having a viscosity of < 1 Pa·s, d) 0.5-20 % by weight of fillers having a particle size of < 100 μm, e) 0.1-5 % by weight of one or a combination of multiple photoinitiators, the absorption of which lies in the wavelength range of the employed laser beam or of the irradiation source, respectively. a) 25-75 % by weight of a monomeric or oligomeric dimethacrylate based on siloxane urethanes having a viscosity of < 100 Pa·s, b) 20-50 % by weight of one or more monomeric/oligomeric cyclic methacrylates having a viscosity of < 0.5 Pa·s, c) 1-25 % by weight of silicone oil having a viscosity of < 1 Pa·s, d) 0.5-20 % by weight of fillers having a particle size of < 100 μm, e) 0.1-5 % by weight of one or a combination of multiple photoinitiators, the absorption of which lies in the wavelength range of the employed laser beam or of the irradiation source, respectively.
A tunable antenna system comprising: an electrically small antenna configured to operate in a range of low-band frequencies and a range of high-band frequencies, the electrically small antenna having a largest dimension that is substantially equal to or less than one-tenth of a length of a wavelength corresponding to a frequency within the range of low-band frequencies; a signal node; and a tunable band-stop circuit in communication between the electrically small antenna and the signal node, the tunable band-stop circuit being tunable to adjust a band-stop frequency that is higher than the range of low-band frequencies but is lower than the range of high-band frequencies; wherein the tunable band-stop circuit is tunable to match an impedance of the electrically small antenna within the range of low-band frequencies while maintaining high antenna efficiency in the range of high-band frequencies. an electrically small antenna configured to operate in a range of low-band frequencies and a range of high-band frequencies, the electrically small antenna having a largest dimension that is substantially equal to or less than one-tenth of a length of a wavelength corresponding to a frequency within the range of low-band frequencies; a signal node; and a tunable band-stop circuit in communication between the electrically small antenna and the signal node, the tunable band-stop circuit being tunable to adjust a band-stop frequency that is higher than the range of low-band frequencies but is lower than the range of high-band frequencies; wherein the tunable band-stop circuit is tunable to match an impedance of the electrically small antenna within the range of low-band frequencies while maintaining high antenna efficiency in the range of high-band frequencies.
A clipping mechanism comprising a plurality of flexible hemostatic clips for closing a surgical wound, each clip comprising a first end, a second end, a top and a bottom and a bio-absorbable body which is generally C-shaped in cross-section, characterised in that: the bottom of each clip includes an indentation formed at the first end of the clip and a finger extending generally outwardly from the second end of the clip, wherein the finger of a first clip engages the indentation of a second clip in an assembled configuration of the clipping mechanism. the bottom of each clip includes an indentation formed at the first end of the clip and a finger extending generally outwardly from the second end of the clip, wherein the finger of a first clip engages the indentation of a second clip in an assembled configuration of the clipping mechanism.
A mount configured to couple a humidification chamber to a flow-generating respiratory apparatus, the mount comprising: a first duct having: a flow inlet end configured to connect to an outlet port of the humidification chamber; a flow outlet end positioned downstream of the flow inlet end and configured to connect to a post-chamber port of the flow generating respiratory apparatus; and an inlet port positioned between the flow inlet end and the flow outlet end so as to be upstream of the of the flow outlet end and such that the first duct comprises a 3-way port, wherein the inlet port is configured to receive an introduced element into a gases flow through the first duct and/or a component for introducing a substance into the gases flow through the first duct; and a second duct configured to connect a pre-chamber port of the flow-generating apparatus and an inlet port of the humidification chamber. a first duct having: a flow inlet end configured to connect to an outlet port of the humidification chamber; a flow outlet end positioned downstream of the flow inlet end and configured to connect to a post-chamber port of the flow generating respiratory apparatus; and an inlet port positioned between the flow inlet end and the flow outlet end so as to be upstream of the of the flow outlet end and such that the first duct comprises a 3-way port, wherein the inlet port is configured to receive an introduced element into a gases flow through the first duct and/or a component for introducing a substance into the gases flow through the first duct; and a flow inlet end configured to connect to an outlet port of the humidification chamber; a flow outlet end positioned downstream of the flow inlet end and configured to connect to a post-chamber port of the flow generating respiratory apparatus; and an inlet port positioned between the flow inlet end and the flow outlet end so as to be upstream of the of the flow outlet end and such that the first duct comprises a 3-way port, wherein the inlet port is configured to receive an introduced element into a gases flow through the first duct and/or a component for introducing a substance into the gases flow through the first duct; and a second duct configured to connect a pre-chamber port of the flow-generating apparatus and an inlet port of the humidification chamber.