mhurhangee/ep-ind-claims huggingface dataset:
An optical module, comprising: a fiber optic transceiver (35; 36) having an optical element and a plurality of pin-like lead frames;a connector housing, which includes a connector fitting portion disposed on the front side of the connector housing and a FOT accommodation portion; and a shield case formed of an electrically conductive metallic plate; wherein the shield case has a housing shield portion and a FOT shield portion, which are formed integrally, and wherein the housing shield portion is configured to cover the connector fitting portion and the FOT shield portion is configured to cover the FOT (35; 36), and the housing shield portion has a resilient retaining piece and a ground pin which are formed on each side wall of the housing shield portion and, a ground pin of the shield case is projectingly formed at a lower end of a rear wall of the FOT shield portion, the rear wall opposing the back surfaces of the FOT (35;36) characterized in that in a rear view of the shield case, the ground pin of the shield case is positioned immediately in front of or immediately behind a lead frame that functions as a ground pin among the plurality of lead frames. a fiber optic transceiver (35; 36) having an optical element and a plurality of pin-like lead frames;a connector housing, which includes a connector fitting portion disposed on the front side of the connector housing and a FOT accommodation portion; and a shield case formed of an electrically conductive metallic plate; wherein the shield case has a housing shield portion and a FOT shield portion, which are formed integrally, and wherein the housing shield portion is configured to cover the connector fitting portion and the FOT shield portion is configured to cover the FOT (35; 36), and the housing shield portion has a resilient retaining piece and a ground pin which are formed on each side wall of the housing shield portion and, a ground pin of the shield case is projectingly formed at a lower end of a rear wall of the FOT shield portion, the rear wall opposing the back surfaces of the FOT (35;36) characterized in that in a rear view of the shield case, the ground pin of the shield case is positioned immediately in front of or immediately behind a lead frame that functions as a ground pin among the plurality of lead frames.
A conveying device for conveying rolled bar segments, continuously exiting from a cutting shear, comprising: - at least two conveying channels (10, 11) for conveying the bar segments, - at least one separation wall for separating a first conveying channel from a second conveying channel, - and at least one fixed partition, provided below said at least one separation wall and which separates said first conveying channel from said second conveying channel, characterized in that said channels (10,11) are arranged next to one another at the same vertical height and said at least one fixed partition is fixed to a base surface common to said conveying channels (10,11), said fixed partition being interposed between said base surface and said separation wall defining two longitudinal cavities with said common base surface wherein, at operating speed, when a rolled bar is deviated to pass from a direction towards the first conveying channel to a direction towards the second conveying channel, the tail of a first bar segment cut by the shear advances in the first conveying channel by passing below said fixed partition, while the head of a second bar segment cut after the first segment advances in the second conveying channel by passing above said fixed partition. - at least two conveying channels (10, 11) for conveying the bar segments, - at least one separation wall for separating a first conveying channel from a second conveying channel, - and at least one fixed partition, provided below said at least one separation wall and which separates said first conveying channel from said second conveying channel,
A process for the preparation of a propylene copolymer, preferably a heterophasic propylene copolymer, in a multistage polymerisation process in the presence of a single site catalyst, said process comprising: in a slurry polymerisation step, polymerising propylene and optionally at least one C2-10 alpha olefin comonomer; and subsequently in a gas polymerisation step polymerising propylene and optionally at least one C2-10 alpha olefin comonomer, in the presence of catalyst and polymer from step; in a second gas polymerisation step, polymerising propylene and at least one C2-10 alpha olefin comonomer in the presence of the catalyst and polymer from step; wherein said catalyst comprises (i) a metallocene complex of a group metal, said metallocene comprising at least two cyclopentadienyl type ligands; (ii) a boron based cocatalyst; and (iii) an aluminoxane cocatalyst; said catalyst being in solid form, preferably in solid particulate form, and being free from an external carrier. in a slurry polymerisation step, polymerising propylene and optionally at least one C2-10 alpha olefin comonomer; and subsequently in a gas polymerisation step polymerising propylene and optionally at least one C2-10 alpha olefin comonomer, in the presence of catalyst and polymer from step; in a second gas polymerisation step, polymerising propylene and at least one C2-10 alpha olefin comonomer in the presence of the catalyst and polymer from step; (i) a metallocene complex of a group metal, said metallocene comprising at least two cyclopentadienyl type ligands; (ii) a boron based cocatalyst; and (iii) an aluminoxane cocatalyst;
A copolymer comprising: a polymeric backbone chain derived from a monomer comprising at least one conjugated diene monomer and, optionally, at least one vinyl aromatic monomer; and a polymeric side-chain bonded exclusively to a terminal end of the backbone chain, the side-chain comprising a polymer derived from a monomer having a hydrogen bond donor site and a hydrogen bond acceptor site or derived from an N-substituted monoalkylacrylamide.
A method of moving a robot by manually applying a guiding force to the robot, wherein: in a mode of operation, a distance (d n, d n+i, d (n, n+1)) of a state variable ( x 1) of the robot from at least two predetermined references ( y n, y n + 1, B) in a state space ( {x i, x j}) of the robot, which at least two predetermined references ( y n, y n + 1, B) are different from one another, is determined; the smallest (d min) of the distances is determined (S210 - S270); and a positioning force ( f) is applied to the robot in a motorised manner in order to minimise the smallest of the distances when the robot is not impeded. in a mode of operation, a distance (d n, d n+i, d (n, n+1)) of a state variable ( x 1) of the robot from at least two predetermined references ( y n, y n + 1, B) in a state space ( {x i, x j}) of the robot, which at least two predetermined references ( y n, y n + 1, B) are different from one another, is determined; the smallest (d min) of the distances is determined (S210 - S270); and a positioning force ( f) is applied to the robot in a motorised manner in order to minimise the smallest of the distances when the robot is not impeded.
A printing plate precursor, which is a water-developable flexographic printing plate precursor comprising a photosensitive layer containing water-dispersible particles which have - a core containing a polymer and having a glass transition temperature (Tg) of ≤ 0°C and - a shell containing a polymer and having a Tg of ≥ 10°C, the Tg being measured by DSC in accordance with JIS K 7121 by the method defined in the description, wherein the polymer contained in the shell contains 2-12 mass% of a constitutional unit derived from a monomer containing an acid group which is at least one acid group selected from a carboxy group, a sulfo group, a phosphoric acid group, and salts thereof and a constitutional unit derived from at least one monomer selected from acrylic and methacrylic acid esters having an alicyclic C ≥6 -hydrocarbon group, acrylamides, methacrylamides, acrylonitrile and methacrylonitrile. - a core containing a polymer and having a glass transition temperature (Tg) of ≤ 0°C and - a shell containing a polymer and having a Tg of ≥ 10°C, the Tg being measured by DSC in accordance with JIS K 7121 by the method defined in the description,
A water-absorbing composition comprising water-absorbing polymer structures, wherein said water-absorbing polymer structures have an inner region and an outer region surrounding the inner region, the outer region having a higher degree of crosslinking than the inner region, and a compound of the structure I in which - R 1, R 2, R 3 and R 4 may be the same or different and are each a hydrogen atom, a halogen atom, a C 1 to C 4 hydrocarbon group or a hydroxyl group, - R 5 is a hydrogen atom, a C 1 to C 4 hydrocarbon group or an acetyl group, - n is an integer selected from the group consisting of 1, 2 and 3, and - M n+ is an n-valent metal cation or an H + cation. - R 1, R 2, R 3 and R 4 may be the same or different and are each a hydrogen atom, a halogen atom, a C 1 to C 4 hydrocarbon group or a hydroxyl group, - R 5 is a hydrogen atom, a C 1 to C 4 hydrocarbon group or an acetyl group, - n is an integer selected from the group consisting of 1, 2 and 3, and - M n+ is an n-valent metal cation or an H + cation.
Lighting device for a motor vehicle comprising at least one first source and at least one second source of light which are arranged together with a reflector, the lighting device further comprising at least one third light source arranged together with at least one light guide so that the lighting device is able to generate: - a light distribution of a daytime running light, when the light emitted by said at least one first source is reflected by the reflector and when the light emitted by said at least one third source is transmitted by said at least one light guide, and - a light distribution of a high-beam headlight, when the light emitted by said at least one second source is reflected by the reflector. - a light distribution of a daytime running light, when the light emitted by said at least one first source is reflected by the reflector and when the light emitted by said at least one third source is transmitted by said at least one light guide, and - a light distribution of a high-beam headlight, when the light emitted by said at least one second source is reflected by the reflector.
A system for powering an accessory device with power generated on a floating solar photovoltaic array, comprising: (a) a plurality of PV modules; (b) a plurality of floating pontoons (20, 30) for supporting the PV modules above the water; (c) an inverter (50, 262) for receiving DC power from the PV modules and converting the DC power to AC power, wherein the inverter has an AC power limit such that any power received above the AC Power limit would be clipped by the inverter; (d) at least one powered accessory device; (e) a power line running from the floating solar array to an on-shore grid; and (f) an energy management power control system configured to send power that has been clipped by the inverter (50, 262) to the at least one powered accessory device, wherein the energy management power control system is configured to send power to the at least one powered accessory device by adjustably changing the amounts of power received from each of the following power sources over a period of time: power received from the PV modules that has been clipped by the inverter (50, 262), power received from the PV modules that has not been clipped by the inverter (50, 262), and power received from the on-shore grid. (a) a plurality of PV modules; (b) a plurality of floating pontoons (20, 30) for supporting the PV modules above the water; (c) an inverter (50, 262) for receiving DC power from the PV modules and converting the DC power to AC power, wherein the inverter has an AC power limit such that any power received above the AC Power limit would be clipped by the inverter; (d) at least one powered accessory device; (e) a power line running from the floating solar array to an on-shore grid; and (f) an energy management power control system configured to send power that has been clipped by the inverter (50, 262) to the at least one powered accessory device, wherein the energy management power control system is configured to send power to the at least one powered accessory device by adjustably changing the amounts of power received from each of the following power sources over a period of time: power received from the PV modules that has been clipped by the inverter (50, 262), power received from the PV modules that has not been clipped by the inverter (50, 262), and power received from the on-shore grid. power received from the PV modules that has been clipped by the inverter (50, 262), power received from the PV modules that has not been clipped by the inverter (50, 262), and power received from the on-shore grid.
A slave electronic device, comprising: a capture unit, coupled to a host electronic device through a transmission lane, filtering out a high-frequency signal part from a control signal outputted by the host electronic device to generate a low-frequency control signal, wherein the control signal has a plurality of periods and the control signal respectively has a low-frequency signal part and the high-frequency signal part during odd periods of the plurality of periods and even periods of the plurality of periods; at least one low-speed unit, coupled to the capture unit, operating according to the low-frequency control signal; and an embedded control unit, coupled to the transmission lane, communicating with the host electronic device using a predetermined communications protocol via the high-frequency signal part. a capture unit, coupled to a host electronic device through a transmission lane, filtering out a high-frequency signal part from a control signal outputted by the host electronic device to generate a low-frequency control signal, wherein the control signal has a plurality of periods and the control signal respectively has a low-frequency signal part and the high-frequency signal part during odd periods of the plurality of periods and even periods of the plurality of periods; at least one low-speed unit, coupled to the capture unit, operating according to the low-frequency control signal; and an embedded control unit, coupled to the transmission lane, communicating with the host electronic device using a predetermined communications protocol via the high-frequency signal part.
A method for separating a sialylated oligosaccharide from a fermentation broth obtained by culturing a genetically modified microorganism capable of producing said sialylated oligosaccharide from an internalized carbohydrate precursor, wherein the separation comprises the steps of: i) ultrafiltration to separate biomass from the broth, ii) nanofiltration, iii) optionally, activated charcoal treatment, and iv) treatment with strong anion and/or cation exchange resin, wherein the sialylated oligosaccharide is an acidic human milk oligosaccharide, wherein the fermentation broth is subjected to ultrafiltration as a first step, wherein the membrane used in ultrafiltration has a molecular weight cut-off of 5-30 kDa, and wherein the pH of the fermentation broth processed in the ultrafiltration step is adjusted to 4-5.5. i) ultrafiltration to separate biomass from the broth, ii) nanofiltration, iii) optionally, activated charcoal treatment, and iv) treatment with strong anion and/or cation exchange resin, wherein the sialylated oligosaccharide is an acidic human milk oligosaccharide, wherein the fermentation broth is subjected to ultrafiltration as a first step, wherein the membrane used in ultrafiltration has a molecular weight cut-off of 5-30 kDa, and wherein the pH of the fermentation broth processed in the ultrafiltration step is adjusted to 4-5.5.
An ocular lens comprising in order from an object side: a first lens group including a first lens component in meniscus form having a convex surface facing the object side; a second lens group including a lens component having a convex surface facing a viewing eye side; and a third lens group having a positive refractive power, wherein an object-side focal plane of the third lens group is positioned between the second lens group and the third lens group, wherein when f represents the focal length of the entire system; and f12 represents the combined focal length of the first lens group and the second lens group, a condition shown by the following expression: 6 ≤ | f 12 | / f is satisfied, wherein when f3 represents the focal length of the third lens group, a condition shown by the following expression: 0.7 ≤ f 3 / f ≤ 1.5 is satisfied, and wherein the first lens component included in the first lens group is a cemented lens formed by cementing two lenses (L11, L12) to each other, and, when v11 represents the d-line Abbe number of the medium of the lens on the object side in the first lens component; and v12 represents the d-line Abbe number of the medium of the lens on the viewing eye side, a condition shown by the following expression: 3 ≤ | v 11 − v 12 | ≤ 40 is satisfied. a first lens group including a first lens component in meniscus form having a convex surface facing the object side; a second lens group including a lens component having a convex surface facing a viewing eye side; and a third lens group having a positive refractive power, wherein an object-side focal plane of the third lens group is positioned between the second lens group and the third lens group, wherein when f represents the focal length of the entire system; and f12 represents the combined focal length of the first lens group and the second lens group, a condition shown by the following expression: 6 ≤ | f 12 | / f is satisfied, wherein when f3 represents the focal length of the third lens group, a condition shown by the following expression: 0.7 ≤ f 3 / f ≤ 1.5 is satisfied, and wherein the first lens component included in the first lens group is a cemented lens formed by cementing two lenses (L11, L12) to each other, and, when v11 represents the d-line Abbe number of the medium of the lens on the object side in the first lens component; and v12 represents the d-line Abbe number of the medium of the lens on the viewing eye side, a condition shown by the following expression: 3 ≤ | v 11 − v 12 | ≤ 40 is satisfied.
A negative electrode active material for a lithium secondary battery, the negative electrode active material comprising: porous polycrystalline silicon, wherein the porous polycrystalline silicon comprises pores disposed at grain boundaries, and wherein the porous polycrystalline silicon has an average grain size of 3 nm to 300 nm. porous polycrystalline silicon, wherein the porous polycrystalline silicon comprises pores disposed at grain boundaries, and wherein the porous polycrystalline silicon has an average grain size of 3 nm to 300 nm.
Angle measuring system comprising an angle measuring device and a rotary transmitter for contactless transmission of electrical signals and/or electrical power, wherein - the angle measuring device comprises a shaft (1.11) and a housing (1.21), and - the shaft (1.11) is arranged rotatably about an axis relative to the housing (1.21), wherein - the housing (1.21) surrounds the shaft (1.11) and has recesses (1.211), - the rotary transmitter has a primary part (2.1), wherein the primary part (2.1) - has a primary winding (2.11), and - has fastening devices (2.12) which are arranged according to a pattern such that the fastening devices (2.12) are arranged congruently with respect to the recesses (1.211) of the housing (1.21), and screws (1.23) are insertable both through the recesses (1.211) and through the fastening devices (2.12) for fastening the angle measuring device together with the rotary transmitter to a first machine part, and - has a pocket (2.13) in which a printed circuit board (2.14) is arranged, wherein the pocket (2.13) is arranged offset axially with respect to the primary winding (2.11) radially outside the housing (1.21) and partially surrounds the housing (1.21) in a segment-like manner. - the angle measuring device comprises a shaft (1.11) and a housing (1.21), and - the shaft (1.11) is arranged rotatably about an axis relative to the housing (1.21), wherein - the housing (1.21) surrounds the shaft (1.11) and has recesses (1.211), - the shaft (1.11) is arranged rotatably about an axis relative to the housing (1.21), wherein - the housing (1.21) surrounds the shaft (1.11) and has recesses (1.211), - the rotary transmitter has a primary part (2.1), wherein the primary part (2.1) - has a primary winding (2.11), and - has fastening devices (2.12) which are arranged according to a pattern such that the fastening devices (2.12) are arranged congruently with respect to the recesses (1.211) of the housing (1.21), and screws (1.23) are insertable both through the recesses (1.211) and through the fastening devices (2.12) for fastening the angle measuring device together with the rotary transmitter to a first machine part, and - has a pocket (2.13) in which a printed circuit board (2.14) is arranged, wherein the pocket (2.13) is arranged offset axially with respect to the primary winding (2.11) radially outside the housing (1.21) and partially surrounds the housing (1.21) in a segment-like manner. - has a primary winding (2.11), and - has fastening devices (2.12) which are arranged according to a pattern such that the fastening devices (2.12) are arranged congruently with respect to the recesses (1.211) of the housing (1.21), and screws (1.23) are insertable both through the recesses (1.211) and through the fastening devices (2.12) for fastening the angle measuring device together with the rotary transmitter to a first machine part, and - has a pocket (2.13) in which a printed circuit board (2.14) is arranged, wherein the pocket (2.13) is arranged offset axially with respect to the primary winding (2.11) radially outside the housing (1.21) and partially surrounds the housing (1.21) in a segment-like manner.