mhurhangee/ep-ind-claims huggingface dataset:
A noise reduction device comprising: a conductive bar of conductive material extending to the outside of a housing; a magnetic material core of magnetic material disposed at a peripheral edge of the conductive bar; a substrate (51, 52) attached to the conductive bar so as to be adjacent to the magnetic material core; a capacitor (C0, C1) mounted on the substrate (51, 52) and having a first terminal connected to the conductive bar and a second terminal, wherein the conductive bar has an outer end that functions as an output terminal, the conductive bar has another end that functions as an input terminal which is connected to an electric device accommodated in the metal housing, characterized in that the conductive bar extends through a through hole provided in the metal housing, the second terminal is connected to an inner wall of the through hole; the noise reduction device comprises a blocking unit blocking an opening of the through hole so as to affix the conductive bar to the metal housing, and the magnetic material core, the substrate (51, 52), and the capacitor (C0, C1) are disposed in the through hole blocked by the blocking unit. a conductive bar of conductive material extending to the outside of a housing; a magnetic material core of magnetic material disposed at a peripheral edge of the conductive bar; a substrate (51, 52) attached to the conductive bar so as to be adjacent to the magnetic material core; a capacitor (C0, C1) mounted on the substrate (51, 52) and having a first terminal connected to the conductive bar and a second terminal, wherein the conductive bar has an outer end that functions as an output terminal, the conductive bar has another end that functions as an input terminal which is connected to an electric device accommodated in the metal housing, characterized in that the conductive bar extends through a through hole provided in the metal housing, the second terminal is connected to an inner wall of the through hole; the noise reduction device comprises a blocking unit blocking an opening of the through hole so as to affix the conductive bar to the metal housing, and the magnetic material core, the substrate (51, 52), and the capacitor (C0, C1) are disposed in the through hole blocked by the blocking unit.
A polypeptide comprising a substitution variant of (a) the amino acid sequence of SEQ ID NO: 3 wherein the first position at the N' terminus of SEQ ID NO: 3 is numbered position 24, or (b) the amino acid sequence of SEQ ID NO: 3 of (a) wherein Alanine at position 24 and Proline at position 25 are deleted, wherein up to 10 amino acids are substituted, and wherein at least one of said amino acid substitutions is at position 122 of SEQ ID NO: 3, or the equivalent position of said sequence wherein Alanine at position 24 and Proline at position 25 are deleted; and wherein said polypeptide binds to CTLA-4 with higher affinity than wild-type human CD86. (a) the amino acid sequence of SEQ ID NO: 3 wherein the first position at the N' terminus of SEQ ID NO: 3 is numbered position 24, or (b) the amino acid sequence of SEQ ID NO: 3 of (a) wherein Alanine at position 24 and Proline at position 25 are deleted,
A building management system comprising: a climate simulation module having access to data representing an internal model of a building and data representing an external model of an environment surrounding the building, wherein the internal model includes at least one energy consuming component installed within the building and having a performance characteristic which is influenced by a climate within the building; and a weather forecasting module for supplying predicted weather data for the geographical location of the building to the climate simulation module; wherein the climate simulation module is configured to calculate wind infiltration into the building based on the predicted weather data and the external model and to determine a climate profile within the building based on the wind infiltration into the building and the internal model of the building; wherein the system further comprises a performance analysis module which is configured to predict the performance characteristic of the at least one energy consuming component based on the climate profile. a climate simulation module having access to data representing an internal model of a building and data representing an external model of an environment surrounding the building, wherein the internal model includes at least one energy consuming component installed within the building and having a performance characteristic which is influenced by a climate within the building; and a weather forecasting module for supplying predicted weather data for the geographical location of the building to the climate simulation module; wherein the climate simulation module is configured to calculate wind infiltration into the building based on the predicted weather data and the external model and to determine a climate profile within the building based on the wind infiltration into the building and the internal model of the building; wherein the system further comprises a performance analysis module which is configured to predict the performance characteristic of the at least one energy consuming component based on the climate profile.
Process of preparing a silicone rubber suspension, comprising following steps: 1) a step of preparing emulsion, comprising the components: a) 100 parts by mass of an organosiloxane with viscosity between 20mPa · s and 1,000 mPa· s at 25 °C, having at least two silicone atom-bonded hydroxyl groups in a molecule; b) 3.0 - 10.0 parts by mass of organoalkoxysilane or partially hydrolysate thereof; c) 2.0 - 10.0 parts by mass of alkyl silicate; d) 0.001 - 1.5 parts by mass of a surfactant; and e) 50 - 200 parts by mass of water; 2) a step of mixing the emulsion with following components: f) condensation reaction catalyst, g) 1.2 - 30.0 parts by mass of a surfactant; and h) 0 - 15 parts by mass of water. 1) a step of preparing emulsion, comprising the components: a) 100 parts by mass of an organosiloxane with viscosity between 20mPa · s and 1,000 mPa· s at 25 °C, having at least two silicone atom-bonded hydroxyl groups in a molecule; b) 3.0 - 10.0 parts by mass of organoalkoxysilane or partially hydrolysate thereof; c) 2.0 - 10.0 parts by mass of alkyl silicate; d) 0.001 - 1.5 parts by mass of a surfactant; and e) 50 - 200 parts by mass of water; a) 100 parts by mass of an organosiloxane with viscosity between 20mPa · s and 1,000 mPa· s at 25 °C, having at least two silicone atom-bonded hydroxyl groups in a molecule; b) 3.0 - 10.0 parts by mass of organoalkoxysilane or partially hydrolysate thereof; c) 2.0 - 10.0 parts by mass of alkyl silicate; d) 0.001 - 1.5 parts by mass of a surfactant; and e) 50 - 200 parts by mass of water; 2) a step of mixing the emulsion with following components: f) condensation reaction catalyst, g) 1.2 - 30.0 parts by mass of a surfactant; and h) 0 - 15 parts by mass of water. f) condensation reaction catalyst, g) 1.2 - 30.0 parts by mass of a surfactant; and h) 0 - 15 parts by mass of water.
A system comprising a component mounter which picks components which are stored in tape (33, 34) and supplied from a component supply device by a component picking device and mounts components on a board which is conveyed by a board conveyance device and a collection device, said component mounter comprising: a waste box which stores the cut tape (33, 34) after the components are picked, a scraping out device which can scrape the tape (33, 34) out of the waste box, and a control device which controls scraping out the stored tape (33, 34) by the scraping out device when the tape (33, 34) is stored in the waste box to a predetermined amount, characterized in that an ejection door which can be opened and closed is provided on the waste box, the collection device is provided with collection doors located so that they can face the ejection door which can be opened and closed, and the control device configured to collect the tape (33, 34) which is scraped out of the waste box into the collection device by opening the ejection door by the pushing force of the tape (33, 34) scraped out of waste box and by opening the collection doors by the pushing force of the ejection door which is opened.
A gene sequencing chip, comprising a silicon wafer and a transparent cover sheet adhered to the silicon wafer, the silicon wafer is provided with an adaptor region containing an adaptor which is capable of capturing a gene molecule to be sequenced, and a liquid inlet and a liquid outlet connecting a flow channel with outside; said gene sequencing chip is characterized in that: the transparent cover sheet is formed with a flow channel groove and a sealant groove at a surface where the transparent cover sheet is adhered to the silicon wafer, wherein the flow channel groove and the silicon wafer enclose the flow channel which allows a liquid to flow through and accommodates the adaptor region, and wherein the sealant groove and the silicon wafer enclose a sealant channel which is filled with a sealant and surrounds the flow channel, wherein the flow channel, in a long strip shape, comprises a middle section and first and second terminal sections located at and connected to two ends of the middle section, respectively; wherein the liquid inlet and the liquid outlet are located at the first and second terminal sections, respectively; and wherein the silicon wafer is further provided with a boss located at the middle section of the flow channel and on which the adaptor region is provided. an adaptor region containing an adaptor which is capable of capturing a gene molecule to be sequenced, and a liquid inlet and a liquid outlet connecting a flow channel with outside; the transparent cover sheet is formed with a flow channel groove and a sealant groove at a surface where the transparent cover sheet is adhered to the silicon wafer, wherein the flow channel groove and the silicon wafer enclose the flow channel which allows a liquid to flow through and accommodates the adaptor region, and wherein the sealant groove and the silicon wafer enclose a sealant channel which is filled with a sealant and surrounds the flow channel, wherein the flow channel, in a long strip shape, comprises a middle section and first and second terminal sections located at and connected to two ends of the middle section, respectively; wherein the liquid inlet and the liquid outlet are located at the first and second terminal sections, respectively; and wherein the silicon wafer is further provided with a boss located at the middle section of the flow channel and on which the adaptor region is provided.
An alert alarm arranged to fit to a cabinet, the alarm comprising: a timer; a first sensor which is an acoustic noise sensor located in use inside the cabinet and in contact with air for detecting sound inside the cabinet; a second sensor which is a conducted noise sensor which in use is in contact with the cabinet for detecting noise travelling through the structure of the cabinet; and a third sensor which is a distortion sensor fixed in use to the cabinet for detecting strain in the structure of the cabinet; a mounting means includes a plurality of supports (31, 32, 33, 34) which in use attach to the cabinet to support the cabinet above a base with a gap between the bottom of the cabinet and the base, characterised in that the supports comprise floor bolts (31, 32, 33, 34) which in use provide sole support for the cabinet and upon which all the weight of the cabinet is distributed when the cabinet is attached to the base, and each sensor (50, 70, 80) provides respective first, second, and third signals in response to a respective physical event that is sensed; and a means triggers an alert in the successive events of: the first and the second signals exceeding respective first and second input thresholds during a first time period; and the third signal exceeding a third input threshold within a predetermined time between 0.5 and 10 seconds subsequent to the end of said first time period. a timer; a first sensor which is an acoustic noise sensor located in use inside the cabinet and in contact with air for detecting sound inside the cabinet; a second sensor which is a conducted noise sensor which in use is in contact with the cabinet for detecting noise travelling through the structure of the cabinet; and a third sensor which is a distortion sensor fixed in use to the cabinet for detecting strain in the structure of the cabinet; a mounting means includes a plurality of supports (31, 32, 33, 34) which in use attach to the cabinet to support the cabinet above a base with a gap between the bottom of the cabinet and the base, characterised in that the supports comprise floor bolts (31, 32, 33, 34) which in use provide sole support for the cabinet and upon which all the weight of the cabinet is distributed when the cabinet is attached to the base, and each sensor (50, 70, 80) provides respective first, second, and third signals in response to a respective physical event that is sensed; and a means triggers an alert in the successive events of: the first and the second signals exceeding respective first and second input thresholds during a first time period; and the third signal exceeding a third input threshold within a predetermined time between 0.5 and 10 seconds subsequent to the end of said first time period.
A metal ion binding anti-CD8 antibody or antigen binding portion thereof, wherein the metal ion is required for the binding of the antibody or antigen binding portion thereof to the binding partner, wherein said metal ion is Ca2+ or Mg2+, and wherein said anti-CD8 antibody or antigen binding portion thereof comprises the VL region of SEQ ID NO:1 combined with the VH region of either SEQ ID NO:4 or SEQ ID NO:5.
An electromagnetic induction device comprising: a magnetic core having a limb, a foil winding (9; 9-5) wound around the limb, wherein the foil winding (9; 9-5) has a first end portion at a first axial end of the foil winding (9; 9-5) and a second end portion at a second axial end, opposite to the first axial end, of the foil winding (9; 9-5), wherein each of the first end portion and the second end portion of the foil winding (9; 9-5) is provided with cut-outs along the circumference of the foil winding (9; 9-5), characterised in that the first end portion and the second end portion each has a plurality of rows of cut-outs, wherein each row extends longitudinally along the circumferential direction of the foil winding, and wherein each pair of adjacent rows are overlapping axially and are displaced relative to each other in the circumferential direction of the foil winding. a magnetic core having a limb, a foil winding (9; 9-5) wound around the limb, wherein the foil winding (9; 9-5) has a first end portion at a first axial end of the foil winding (9; 9-5) and a second end portion at a second axial end, opposite to the first axial end, of the foil winding (9; 9-5), wherein each of the first end portion and the second end portion of the foil winding (9; 9-5) is provided with cut-outs along the circumference of the foil winding (9; 9-5), characterised in that the first end portion and the second end portion each has a plurality of rows of cut-outs, wherein each row extends longitudinally along the circumferential direction of the foil winding, and wherein each pair of adjacent rows are overlapping axially and are displaced relative to each other in the circumferential direction of the foil winding.
A biochip for detecting or sequencing biomolecules comprising: a base member; a dielectric layer deposited on the base member and having discrete recesses (101, 104) formed thereon; and two or more electrodes sandwiched between the base member and the dielectric layer and running under respective rows of discrete recesses, the two or more electrodes separated from each other along their length by a portion of the dielectric layer; wherein the dielectric layer defines a continuous operation surface above the electrodes and on which the discrete recesses (101, 104) are formed for detecting or sequencing biomolecules, such that applying an electric field to said electrodes causes a field gradient to be created to draw biomolecules towards a preferred part of the operation surface; wherein the recesses (101, 104) comprise two or more rows of wells and one or more furrows, wherein the one or more furrows are formed between two rows of wells; and wherein each electrode extends across the base member and is common to the wells in a same row. a base member; a dielectric layer deposited on the base member and having discrete recesses (101, 104) formed thereon; and two or more electrodes sandwiched between the base member and the dielectric layer and running under respective rows of discrete recesses, the two or more electrodes separated from each other along their length by a portion of the dielectric layer; wherein the dielectric layer defines a continuous operation surface above the electrodes and on which the discrete recesses (101, 104) are formed for detecting or sequencing biomolecules, such that applying an electric field to said electrodes causes a field gradient to be created to draw biomolecules towards a preferred part of the operation surface; wherein the recesses (101, 104) comprise two or more rows of wells and one or more furrows, wherein the one or more furrows are formed between two rows of wells; and wherein each electrode extends across the base member and is common to the wells in a same row.
A communications device configured to transmit or receive signals via a wireless access interface provided by a wireless communications network to or from one or more infrastructure equipment forming part of the wireless communications network, wherein the communications device is configured, to receive a first broadcast message from one of the infrastructure equipment comprising an indication that the infrastructure equipment is capable of operating in accordance with a first packet data convergence protocol, PDCP, associated with a first radio access technology, at the time of a Radio Resource Control, RRC, connection establishment procedure, to establish a PDCP entity based on the indication received in the first message, and subsequently to transmit a second message to the infrastructure equipment comprising an indication that the communications device is capable of operating in accordance with one or both of the first PDCP and a second PDCP associated with a second radio access technology. to receive a first broadcast message from one of the infrastructure equipment comprising an indication that the infrastructure equipment is capable of operating in accordance with a first packet data convergence protocol, PDCP, associated with a first radio access technology, at the time of a Radio Resource Control, RRC, connection establishment procedure, to establish a PDCP entity based on the indication received in the first message, and subsequently to transmit a second message to the infrastructure equipment comprising an indication that the communications device is capable of operating in accordance with one or both of the first PDCP and a second PDCP associated with a second radio access technology.
A molding die for bending a laminate formed by stacking a plurality of fiber sheets, the molding die comprising: a kink surface on which the laminate is laid; an a placement surface intersecting the kink surface and on which the laminate is placed by bending the laminate laid on the kink surface, characterized in that the kink surface is bent so as to protrude in a second direction (Dd) orthogonal to a first direction (Dh), with a kink line extending along the first direction connecting a first kink point and a second kink point as a boundary, the placement surface has a normal direction substantially coinciding with the first direction (Dh) and has a bending line extending in a third direction (Dw) orthogonal to the first direction (Dh) and the second direction (Dd), the kink surface has a first boundary line connecting a first intersection on the bending line and the first kink point, and a second boundary line connecting a second intersection on the bending line and the first kink point, the first intersection is positioned closer to one end of the bending line relative to the first kink point in the third direction, the second intersection is positioned closer to an other end of the bending line relative to the first kink point in the third direction, the first kink point is positioned between the first intersection and the second intersection and the second kink point in the first direction, and the bending line between the first intersection and the second intersection convexly protrudes toward the kink line in the second direction. a kink surface on which the laminate is laid; an a placement surface intersecting the kink surface and on which the laminate is placed by bending the laminate laid on the kink surface, characterized in that the kink surface is bent so as to protrude in a second direction (Dd) orthogonal to a first direction (Dh), with a kink line extending along the first direction connecting a first kink point and a second kink point as a boundary, the placement surface has a normal direction substantially coinciding with the first direction (Dh) and has a bending line extending in a third direction (Dw) orthogonal to the first direction (Dh) and the second direction (Dd), the kink surface has a first boundary line connecting a first intersection on the bending line and the first kink point, and a second boundary line connecting a second intersection on the bending line and the first kink point, the first intersection is positioned closer to one end of the bending line relative to the first kink point in the third direction, the second intersection is positioned closer to an other end of the bending line relative to the first kink point in the third direction, the first kink point is positioned between the first intersection and the second intersection and the second kink point in the first direction, and the bending line between the first intersection and the second intersection convexly protrudes toward the kink line in the second direction.