mhurhangee/ep-ind-claims huggingface dataset:
A fiber optic MEMS microphone, comprising; • An optical fiber cable, • A MEMS device integrated at the end of the optical fiber cable, wherein the MEMS device features a membrane coated with optically reflective material that reflects an incident laser light and comprising air holes that transmit the incident laser light; • A photodiode chip placed on top of the MEMS device and electrically wired to the SIGNAL and GND pads of the MEMS device, for biasing the MEMS device; • A laser diode for providing a power adjustable laser light beam; wherein the MEMS device is capable of reflecting part of the incident laser light from the membrane back to the optical fiber, for detection of the membrane displacement via phase modulation or intensity modulation of the incident laser light, whereas allowing the remaining part of the incident laser light to be transmitted through the membrane onto the photodiode chip, for the generation of voltage across the photodiode chip, wherein the MEMS device is thus adapted to be biased at different voltage values by adjusting the laser light beam power. • An optical fiber cable, • A MEMS device integrated at the end of the optical fiber cable, wherein the MEMS device features a membrane coated with optically reflective material that reflects an incident laser light and comprising air holes that transmit the incident laser light; • A photodiode chip placed on top of the MEMS device and electrically wired to the SIGNAL and GND pads of the MEMS device, for biasing the MEMS device; • A laser diode for providing a power adjustable laser light beam;
An axial-flow fluid machine blade for an axial-flow fluid machine, comprising: a leading edge projecting at a tip portion and a root portion thereof toward the upstream side; and a trailing edge projecting at a tip portion, a mid-span portion and a root portion thereof toward the downstream side, wherein the axial-flow fluid machine blade is formed in such a manner that the chord length of the mid-span portion is longer than the chord length of the area between the tip portion and the mid-span portion and the area between the mid-span portion and the root portion. a leading edge projecting at a tip portion and a root portion thereof toward the upstream side; and a trailing edge projecting at a tip portion, a mid-span portion and a root portion thereof toward the downstream side, wherein the axial-flow fluid machine blade is formed in such a manner that the chord length of the mid-span portion is longer than the chord length of the area between the tip portion and the mid-span portion and the area between the mid-span portion and the root portion.
Smoke or fire protection device with (a) a flexible partition element that can be put - in a protection arrangement in which the partition element demonstrates its protective effect and - in a storage arrangement, and (b) a winding shaft upon which the partition element is rolled when in the storage arrangement, (c) a storage device, by means of which the winding shaft is stored, (d) a fixing device for the fixing of the fire or smoke protection device to a part of a building, characterized by (e) at least one anchoring device, which interacts positively with the winding shaft when and only when the partition element is in the protection arrangement, (f) wherein the anchoring device is designed to introduce a weight force at least on the winding shaft in the form of a tractive force, such that the winding shaft hangs on the anchoring device when the storage device no longer supports or holds the winding shaft. (a) a flexible partition element that can be put - in a protection arrangement in which the partition element demonstrates its protective effect and - in a storage arrangement, and - in a protection arrangement in which the partition element demonstrates its protective effect and - in a storage arrangement, and (b) a winding shaft upon which the partition element is rolled when in the storage arrangement, (c) a storage device, by means of which the winding shaft is stored, (d) a fixing device for the fixing of the fire or smoke protection device to a part of a building, (e) at least one anchoring device, which interacts positively with the winding shaft when and only when the partition element is in the protection arrangement, (f) wherein the anchoring device is designed to introduce a weight force at least on the winding shaft in the form of a tractive force, such that the winding shaft hangs on the anchoring device when the storage device no longer supports or holds the winding shaft.
An optical receiver comprising: a photodetector element configured to convert an optical signal into an electric current signal; a transimpedance amplifier configured to convert the electric current signal into a voltage signal; a differential amplifier (12d-12g) configured to convert the voltage signal into a differential signal, by performing differential amplification of a difference between the voltage signal and a threshold voltage; a control section configured to repeatedly execute offset cancellation processing, the offset cancellation processing including threshold voltage change processing in which the threshold voltage is changed such that an offset voltage of the differential signal is reduced, the offset voltage (Vos) being a difference between a DC component of a positive phase signal of the differential signal (<V2p>) and a DC component of a negative phase signal of the differential signal (<V2n>), characterized by: a no-signal detection circuit configured to detect a no-signal section of the optical signal by measuring the electric current signal; the control section configured to skip the threshold voltage change processing in the no-signal section in order to perform offset cancellation while causing no distortion in the differential signal immediately after a transition from a no-signal section to a signal section. a photodetector element configured to convert an optical signal into an electric current signal; a transimpedance amplifier configured to convert the electric current signal into a voltage signal; a differential amplifier (12d-12g) configured to convert the voltage signal into a differential signal, by performing differential amplification of a difference between the voltage signal and a threshold voltage; a control section configured to repeatedly execute offset cancellation processing, the offset cancellation processing including threshold voltage change processing in which the threshold voltage is changed such that an offset voltage of the differential signal is reduced, the offset voltage (Vos) being a difference between a DC component of a positive phase signal of the differential signal (<V2p>) and a DC component of a negative phase signal of the differential signal (<V2n>), characterized by: a no-signal detection circuit configured to detect a no-signal section of the optical signal by measuring the electric current signal; the control section configured to skip the threshold voltage change processing in the no-signal section in order to perform offset cancellation while causing no distortion in the differential signal immediately after a transition from a no-signal section to a signal section. a no-signal detection circuit configured to detect a no-signal section of the optical signal by measuring the electric current signal; the control section configured to skip the threshold voltage change processing in the no-signal section in order to perform offset cancellation while causing no distortion in the differential signal immediately after a transition from a no-signal section to a signal section.
A heterophasic polypropylene composition characterised by an MFR230/2.16 according to ISO1133 of 10.0 g/10 min or more and comprising a) 80.0 - 96.0 wt.-% of a polypropylene random copolymer having a comonomer content in the range of 0.2 - 3.5 wt.-%; b) 3.0 -18.0 wt.-% of a polypropylene homopolymer or polypropylene random copolymer having a comonomer content up to 1.0 wt% and wherein the comonomer content in the polypropylene random copolymer (a) is higher than the comonomer content of the polypropylene homopolymer or polypropylene random copolymer (b), c) 0.5 - 2.50 wt.-% of an elastomeric ethylene-propylene copolymer fraction characterised by an IV of 0.7 - 2.0 dl/g and an C2 of 12.0 - 35.0 wt.-%., and d) 0.002 - 0.60 wt.-% of a clarifying agent a) 80.0 - 96.0 wt.-% of a polypropylene random copolymer having a comonomer content in the range of 0.2 - 3.5 wt.-%; b) 3.0 -18.0 wt.-% of a polypropylene homopolymer or polypropylene random copolymer having a comonomer content up to 1.0 wt% and wherein the comonomer content in the polypropylene random copolymer (a) is higher than the comonomer content of the polypropylene homopolymer or polypropylene random copolymer (b), c) 0.5 - 2.50 wt.-% of an elastomeric ethylene-propylene copolymer fraction characterised by an IV of 0.7 - 2.0 dl/g and an C2 of 12.0 - 35.0 wt.-%., and an IV of 0.7 - 2.0 dl/g and an C2 of 12.0 - 35.0 wt.-%., and d) 0.002 - 0.60 wt.-% of a clarifying agent
An IL-2 polypeptide with one non-naturally encoded amino acid, wherein the IL-2 polypeptide has the amino acid sequence of SEQ ID NO: 2, wherein the non-naturally encoded amino acid is incorporated into position 45 of SEQ ID NO: 2, wherein a water-soluble polymer is conjugated to the IL-2 polypeptide through the non-naturally encoded amino acid via a non-cleavable linker, wherein the non-naturally encoded amino acid is para-acetyl-phenylalanine, wherein the IL-2 polypeptide is glycosylated, and wherein said IL-2 polypeptide has reduced interaction with its IL-2Rα receptor subunit compared to a wild-type IL-2 polypeptide.
Method for producing metallizations on plastic parts, in particular three-dimensional plastic parts, in which a conductive layer is selectively produced and a galvanic metallization built up on it, characterized in that a respective connecting part is formed onto the plastic parts and in that the plastic parts are connected by means of the connecting part to a flexible carrier, in particular a transporting strip, which adjoins the respective plastic part on one or both sides, in order in this way to achieve a temporary linkup of a multiplicity of plastic parts, and in that an electrically conductive connection between the carrier and the plastic part is established for supplying power for the galvanic metallization by means of the connecting part.
A head mountable display, HMD, having a head motion detection function configured to detect a first head motion and a second head motion and a control function configured to: control the execution of an operation of displaying an object on a display area of the HMD, the execution of which is varied in dependence upon the first detected head motion, store the first detected head motion as motion data, and apply the second detected head motion to the operation, wherein the control function is further configured to apply a scaling or threshold to the second detected head motion in dependence upon the stored motion data, wherein the stored motion data comprises data dependent upon the first head motion of the user of that HMD aggregated with motion data for other users, and wherein if a range of the second head motion carried out by the user in response to a predetermined exercise is lower than that associated with the stored motion data, the size of the display area is reduced. control the execution of an operation of displaying an object on a display area of the HMD, the execution of which is varied in dependence upon the first detected head motion, store the first detected head motion as motion data, and apply the second detected head motion to the operation, wherein the control function is further configured to apply a scaling or threshold to the second detected head motion in dependence upon the stored motion data, wherein the stored motion data comprises data dependent upon the first head motion of the user of that HMD aggregated with motion data for other users, and wherein if a range of the second head motion carried out by the user in response to a predetermined exercise is lower than that associated with the stored motion data, the size of the display area is reduced.
Composition comprising: - myristic acid; and - between 10 and 70%, preferably between 30 and 65%, and most preferably between 50 and 60% by weight in relation to the weight of the myristic acid, of a fatty acid X1 and/or at least one of the salts thereof, said fatty acid X1 comprising from 16 to 18 carbon atoms and an n-5cis, n-7trans conjugated diene; and/or - between 10 and 70%, preferably between 30 and 65%, and most preferably between 50 and 60% by weight in relation to the weight of the myristic acid, of a fatty acid X2 and/or at least one of the salts thereof, said fatty acid X2 comprising from 18 to 22 carbon atoms and an n-5cis, n-7trans, n-9cis conjugated triene. - myristic acid; and - between 10 and 70%, preferably between 30 and 65%, and most preferably between 50 and 60% by weight in relation to the weight of the myristic acid, of a fatty acid X1 and/or at least one of the salts thereof, said fatty acid X1 comprising from 16 to 18 carbon atoms and an n-5cis, n-7trans conjugated diene; and/or - between 10 and 70%, preferably between 30 and 65%, and most preferably between 50 and 60% by weight in relation to the weight of the myristic acid, of a fatty acid X2 and/or at least one of the salts thereof, said fatty acid X2 comprising from 18 to 22 carbon atoms and an n-5cis, n-7trans, n-9cis conjugated triene.
A chemically strengthened alkali-alumino-silicate glass made from a glass composition characterized by comprising: from 59.0 to 65.0 wt% of SiO 2, from 11.9 to 13.0 wt% of Al 2 O 3, from 16.0 to 18.5 wt% of Na 2 O, from 0 to 1.0 wt% of B 2 O 3, from 2.8 to 3.3 wt% of K 2 O, and from 2.0 to 6.0 wt% of MgO, wherein 1.5 is < (B 2 O 3 + Na 2 O + K 2 O)/Al 2 O 3; wherein 1.0 is < (Na 2 O + K 2 O)/(Al 2 O 3 + MgO); wherein the glass composition is ion-exchanged and has a surface compressive stress layer and a central tension zone, and the glass has a softening temperature of less than 765°C. from 59.0 to 65.0 wt% of SiO 2, from 11.9 to 13.0 wt% of Al 2 O 3, from 16.0 to 18.5 wt% of Na 2 O, from 0 to 1.0 wt% of B 2 O 3, from 2.8 to 3.3 wt% of K 2 O, and from 2.0 to 6.0 wt% of MgO, wherein 1.5 is < (B 2 O 3 + Na 2 O + K 2 O)/Al 2 O 3; wherein 1.0 is < (Na 2 O + K 2 O)/(Al 2 O 3 + MgO); wherein the glass composition is ion-exchanged and has a surface compressive stress layer and a central tension zone, and the glass has a softening temperature of less than 765°C.
A method of analysing the effect and deposition of remedial and beneficial treatments on hair, comprising the steps of: (i) collecting imaging data for at least one hair surface, (ii) applying at least one treatment, comprising at least one benefit agent, to the hair surface, to deposit the benefit agent onto the hair surface, (iii) collecting imaging data for the hair surface arising from step (ii), (iv) converting the imaging data collected at steps (i) and (iii) into a format to create magnified images from a 3D printer, (v) producing magnified 3D models of the hair surface from a 3D printer using the data from step iv, (vi) comparing the 3D model arising from step (iii) to the 3D model arising from step (i), (vii) analyzing the deposition behavior of the benefit agent, (viii) analyzing any consumer perceivable effect resulting from step (ii), and (ix) correlating the analysis of step (vii) to the analysis of step (viii). (i) collecting imaging data for at least one hair surface, (ii) applying at least one treatment, comprising at least one benefit agent, to the hair surface, to deposit the benefit agent onto the hair surface, (iii) collecting imaging data for the hair surface arising from step (ii), (iv) converting the imaging data collected at steps (i) and (iii) into a format to create magnified images from a 3D printer, (v) producing magnified 3D models of the hair surface from a 3D printer using the data from step iv, (vi) comparing the 3D model arising from step (iii) to the 3D model arising from step (i), (vii) analyzing the deposition behavior of the benefit agent, (viii) analyzing any consumer perceivable effect resulting from step (ii), and (ix) correlating the analysis of step (vii) to the analysis of step (viii).
A catalyst complex for catalysis of degradation of a condensation polymer material, said complex comprising: - a magnetic particulate body containing iron oxide at its surface; - a plurality of catalytic groups grafted onto the iron oxide surface of the magnetic particulate body, which catalytic groups comprise a bridging moiety and a catalyst entity, wherein the bridging moiety comprises a functional group for adhesion or bonding to the iron oxide surface and a linking group towards the catalyst entity, and wherein the catalyst entity comprises a positively charged aromatic heterocycle moiety, and a negatively charged moiety for balancing the positively charged aromatic moiety, wherein the bridging moiety comprises a silanol group as a functional group for adhesion and an alkyl group as a linking group between the silanol group and the heterocyclic aromatic moiety, wherein the magnetic particulate body is an aggregate comprising magnetic nanoparticles with an number-average diameter of 200-350 nm, wherein the particulate body has a specific surface area of 15-30 m 2 /g. - a magnetic particulate body containing iron oxide at its surface; - a plurality of catalytic groups grafted onto the iron oxide surface of the magnetic particulate body, which catalytic groups comprise a bridging moiety and a catalyst entity, wherein the bridging moiety comprises a functional group for adhesion or bonding to the iron oxide surface and a linking group towards the catalyst entity, and wherein the catalyst entity comprises a positively charged aromatic heterocycle moiety, and a negatively charged moiety for balancing the positively charged aromatic moiety, wherein the bridging moiety comprises a silanol group as a functional group for adhesion and an alkyl group as a linking group between the silanol group and the heterocyclic aromatic moiety,
A lead-free solder ball which is used for electrodes by mounting on a module substrate for a BGA or CSP and which has a solder composition consisting of 0.5 - 1.1 mass % of Ag, 0.7 - 0.8 mass % of Cu, 0.05 - 0.08 mass % of Ni, optionally at least one element selected from Fe, Co, and Pt in a total amount of 0.003 - 0.1 mass %, optionally at least one element selected from Bi, In, Sb, P, and Ge in a total amount of 0.003 - 0.1 mass %, and a remainder of Sn.
A control apparatus (102, 207) comprising at least one processor or circuit configured to execute a plurality of tasks including: a first acquiring task configured to acquire information on an image shift sensitivity to a tilt of an imaging optical system corresponding to an image point position of the imaging optical system on an image plane (X-Y), which information includes an influence of a distortion of the imaging optical system; and a second acquiring task configured to acquire an image-stabilization driving amount that is used for an image stabilization by an image stabilizer (210, 105) configured to provide the image stabilization, wherein the second acquiring task acquires the image-stabilization driving amount corresponding to a predetermined image point position on the image plane using the information on the image shift sensitivity corresponding to the predetermined image point position; characterized in that the first acquiring task is further configured to acquire the information on the image shift sensitivity from a memory (106, 211) storing the information on the image shift sensitivity as information (K1 - K4; K1' - K4') determined for each position (11, 12, 21) on the image plane. a first acquiring task configured to acquire information on an image shift sensitivity to a tilt of an imaging optical system corresponding to an image point position of the imaging optical system on an image plane (X-Y), which information includes an influence of a distortion of the imaging optical system; and a second acquiring task configured to acquire an image-stabilization driving amount that is used for an image stabilization by an image stabilizer (210, 105) configured to provide the image stabilization, wherein the second acquiring task acquires the image-stabilization driving amount corresponding to a predetermined image point position on the image plane using the information on the image shift sensitivity corresponding to the predetermined image point position; characterized in that the first acquiring task is further configured to acquire the information on the image shift sensitivity from a memory (106, 211) storing the information on the image shift sensitivity as information (K1 - K4; K1' - K4') determined for each position (11, 12, 21) on the image plane.
Apparatus of a radio communication network utilizing downlink multi-flow transmission with closed-loop uplink transmit diversity, comprising deciding means adapted to meet a decision if any of a first cell device and a second cell device provides a feedback for an uplink transmit diversity of at least two antennas of a terminal, determining means adapted to determine, if it is decided that the feedback is to be provided, which one of the first cell device or the second cell device provides the feedback; providing means adapted to provide the determination whether the first cell device or the second cell device provides the feedback to at least one of the first cell device and the second cell device. deciding means adapted to meet a decision if any of a first cell device and a second cell device provides a feedback for an uplink transmit diversity of at least two antennas of a terminal, determining means adapted to determine, if it is decided that the feedback is to be provided, which one of the first cell device or the second cell device provides the feedback; providing means adapted to provide the determination whether the first cell device or the second cell device provides the feedback to at least one of the first cell device and the second cell device.
A compound represented by the formula or a pharmaceutically acceptable salt thereof: wherein R is a C 1-6 alkyl group optionally substituted with one or more hydroxyl groups, a C 1-6 alkoxy group, or a cyano group.
Apparatus for the cleaning of industrial filters, comprising at least a storage tank of compressed air, at least an air supply duct, at least one valve (5, 5') configured to generate an air flow for the cleaning of industrial filters, and a valve driving system comprising: - at least a remote control unit; - at least a driving unit (8, 8') operatively connected to said at least one valve (5, 5'); characterized in that said valve driving system comprises: - storage means (10, 10') of electric energy connected to said driving unit (8, 8'); - transformation means (11, 12, 31, 11', 12', 31', 33) for transforming pneumatic energy into electric energy, which are connected to said storage means (10, 10') and which are configured to transform the pneumatic energy generated by at least one said air flow inside said apparatus into electric energy for powering said driving unit (8, 8'). - at least a remote control unit; - at least a driving unit (8, 8') operatively connected to said at least one valve (5, 5'); - storage means (10, 10') of electric energy connected to said driving unit (8, 8'); - transformation means (11, 12, 31, 11', 12', 31', 33) for transforming pneumatic energy into electric energy, which are connected to said storage means (10, 10') and which are configured to transform the pneumatic energy generated by at least one said air flow inside said apparatus into electric energy for powering said driving unit (8, 8').