mhurhangee/ep-ind-claims huggingface dataset:
Method for producing an aldehyde with 5 to 31 carbon atoms, comprising the steps: a) Providing microorganism cells containing an alpha-dioxygenase, b) Applying a conversion medium containing a fatty acid with 6 to 32 carbon atoms to the microorganism cells, c) Converting the fatty acid to the aldehyde by means of the alpha-dioxygenase. a) Providing microorganism cells containing an alpha-dioxygenase, b) Applying a conversion medium containing a fatty acid with 6 to 32 carbon atoms to the microorganism cells, c) Converting the fatty acid to the aldehyde by means of the alpha-dioxygenase.
A transmission for shredding machines, comprising a drive shaft, a driven shaft and an intermediate shaft with at least two spur gears (5, 6, 7) each and at least one hydraulic shift clutch (13, 14, 15) each, and with at least one overload clutch, wherein the shafts (1, 2, 3) can releasably be coupled with each other via the spur gears (5, 6, 7) and via the hydraulic shift clutches (13, 14, 15), and wherein the driven shaft can be coupled with a planetary transmission and furthermore with a shredding shaft by means of the overload clutch.
Isolation sandwich block, which is used in laying the exterior building walls and provides the sound and heat isolation, comprising; an isolation piece positioned in the middle section of the block to provide sound and heat isolation and a block wall which is located during the production of the isolation sandwich block, on the surface on both sides of said isolation piece facing the interior and the exterior space by way of coating said surfaces of said isolation piece with a prepared mortar, at least one mortar slot (2.1), where the mortar is to be placed, said mortar enabling the isolation sandwich blocks placed on top of another to be joined by way of putting said mortar on said block wall, and - at least one fitting slot (3.2), which is formed in said isolation piece and enables positioning of horizontal and vertical fittings in masonry buildings in order to cover the stresses in the tension zone. - at least one fitting slot (3.2), which is formed in said isolation piece and enables positioning of horizontal and vertical fittings in masonry buildings in order to cover the stresses in the tension zone.
A coil residual life predicting method comprising: a first step of checking whether or not cooling water from a conductor leaks to an insulating layer, and executing measurement necessary for estimating a breakdown voltage of a coil plural times with time if the conductor cooling water leaks to the insulating layer to estimate a breakdown voltage of a coil, and estimating a breakdown voltage of a coil each time the measurement is executed, the estimating step further including of applying an alternative voltage to a conductor of the coil, measuring an internal electrode potential at an outer surface of an insulating layer on an internal electrode, and calculating a breakdown voltage corresponding to the measured internal electrode potential based on a previously created breakdown voltage-internal electrode potential characteristic diagram; a second step of drawing and extrapolating a curve representing a change of the breakdown voltage with time to predict a future decreasing tendency of the breakdown voltage; and a third step of determining a period necessary for the breakdown voltage to drop down to a voltage necessary for operating the coil based on the curve representing the change with time. a first step of checking whether or not cooling water from a conductor leaks to an insulating layer, and executing measurement necessary for estimating a breakdown voltage of a coil plural times with time if the conductor cooling water leaks to the insulating layer to estimate a breakdown voltage of a coil, and estimating a breakdown voltage of a coil each time the measurement is executed, the estimating step further including of applying an alternative voltage to a conductor of the coil, measuring an internal electrode potential at an outer surface of an insulating layer on an internal electrode, and calculating a breakdown voltage corresponding to the measured internal electrode potential based on a previously created breakdown voltage-internal electrode potential characteristic diagram; a second step of drawing and extrapolating a curve representing a change of the breakdown voltage with time to predict a future decreasing tendency of the breakdown voltage; and a third step of determining a period necessary for the breakdown voltage to drop down to a voltage necessary for operating the coil based on the curve representing the change with time.
An information terminal device having a touch panel, comprising: a pointer display unit configured to verify whether an icon has been touched in a state where the icon and anchors serving as selection candidates are displayed on a display screen of the touch panel, the pointer display unit being configured to display one or more pointers indicating the anchors in one or more directions when it has been verified that the icon has been touched, and wherein the anchors correspond to symbols for displaying link destinations; a touch region display unit configured to display touch regions corresponding to the pointers in one-to-one correspondence; and an anchor selection unit configured to select an anchor indicated by a pointer corresponding to the touched touch region, characterised in that the one or more pointers and the touch regions are moved with movement of the icon, in a state in which their relative distances from the icon are maintained. a pointer display unit configured to verify whether an icon has been touched in a state where the icon and anchors serving as selection candidates are displayed on a display screen of the touch panel, the pointer display unit being configured to display one or more pointers indicating the anchors in one or more directions when it has been verified that the icon has been touched, and wherein the anchors correspond to symbols for displaying link destinations; a touch region display unit configured to display touch regions corresponding to the pointers in one-to-one correspondence; and an anchor selection unit configured to select an anchor indicated by a pointer corresponding to the touched touch region, characterised in that the one or more pointers and the touch regions are moved with movement of the icon, in a state in which their relative distances from the icon are maintained.
Drywall screw for fastening a plasterboard panel to a metal support, having a head, a tip portion and an elongate shank, wherein the shank defines an axis in its longitudinal direction and extends along the axis from the head to the tip portion, wherein the tip portion adjoins the shank and is suitable for producing a first borehole in the plasterboard panel and a second borehole in the metal support when the drywall screw is driven through the plasterboard panel in the direction of the axis, wherein the drywall screw has a widening element which is suitable for widening the first borehole in the plasterboard panel to a first borehole diameter t and breaking off upon impinging on the metal support, wherein the head is larger than the first borehole diameter t with a pressing-in volume V 1, wherein the shank has a threaded portion provided with a thread, characterized in that the shank has a thread-free underhead portion which is arranged along the axis between the threaded portion and the head and which is smaller than the first borehole diameter t with a receiving volume V 2 which is at least 80% of the pressing-in volume V 1.
A magnetic sensor, comprising: a first plurality of magnetoresistive sensor elements coupled together as a first circuit; and a second circuit adjacent to the first circuit and configured to receive a bipolar current signal from a bipolar current source coupled to the second circuit, wherein a portion of the second circuit is adjacent to each magnetoresistive sensor element of the first plurality of magnetoresistive sensor elements, and characterised in that the bipolar current signal is a cyclic signal including a positive portion, a negative portion different from the positive portion, a positive reset pulse at a beginning of the positive portion, and a negative reset pulse at a beginning of the negative portion. a first plurality of magnetoresistive sensor elements coupled together as a first circuit; and a second circuit adjacent to the first circuit and configured to receive a bipolar current signal from a bipolar current source coupled to the second circuit, wherein a portion of the second circuit is adjacent to each magnetoresistive sensor element of the first plurality of magnetoresistive sensor elements, and characterised in that the bipolar current signal is a cyclic signal including a positive portion, a negative portion different from the positive portion, a positive reset pulse at a beginning of the positive portion, and a negative reset pulse at a beginning of the negative portion.
A film forming complex consisting of 0,1 to 20 wt% Hydrolyzed Corn Starch, 0,1 to 20 wt% Pullulan, 0,1 to 3 wt% of a rheology modulating polymer, 0,1 to 20 wt% of a plasticizer, 0,1 to 30 wt% kaolin, water and cosmetically acceptable auxiliaries, whereby all given percentages relate to the total weight of the film forming complex and wherein the film forming complex does not contain polyvinyl alcohol, polyurethane, alginates, alginic acid and ethanol. 0,1 to 20 wt% Hydrolyzed Corn Starch, 0,1 to 20 wt% Pullulan, 0,1 to 3 wt% of a rheology modulating polymer, 0,1 to 20 wt% of a plasticizer, 0,1 to 30 wt% kaolin,
Artificial fireplace, comprising: - an enclosure delimited by a lower wall, an upper wall and a peripheral wall which has an opening, - an artificial bed of embers being arranged inside the enclosure on a bottom defined by the lower wall, - a display screen arranged in the enclosure, - a line of sight extending from the display screen to the outside of the hearth through the opening, and - projection means arranged in the enclosure, the projection means being configured to emit an image, in particular of animated flames, in the direction of the display screen, characterized in that the projection means are configured to emit, according to an incident ray, images, in particular of animated flames, by means of linear polarized light, the display screen being defined by a transparent glass plate which extends between the artificial bed of embers and the projection means, the transparent plate forming an angle of between 50° and 56° with respect to the incident ray. - an enclosure delimited by a lower wall, an upper wall and a peripheral wall which has an opening, - an artificial bed of embers being arranged inside the enclosure on a bottom defined by the lower wall, - a display screen arranged in the enclosure, - a line of sight extending from the display screen to the outside of the hearth through the opening, and - projection means arranged in the enclosure, the projection means being configured to emit an image, in particular of animated flames, in the direction of the display screen,
A tablet press comprising: a turning unit including at least one die for forming the tablet, a drive unit which allows the turning unit to rotate station by station between individual processing positions where the turning unit is stationary, and at least one lower punch, wherein the lower punch is disposed in the die to rotate with the turning unit, and a coupling unit, which can couple and decouple the drive unit and the turning unit, wherein the coupling unit is arranged to decouple the drive unit and the rotary unit in a processing position, characterized in that the drive unit includes a linear actuator (10, 11). a turning unit including at least one die for forming the tablet, a drive unit which allows the turning unit to rotate station by station between individual processing positions where the turning unit is stationary, and at least one lower punch, wherein the lower punch is disposed in the die to rotate with the turning unit, and a coupling unit, which can couple and decouple the drive unit and the turning unit, wherein the coupling unit is arranged to decouple the drive unit and the rotary unit in a processing position, characterized in that the drive unit includes a linear actuator (10, 11).
A method of treating wood products for conferring properties of fire retardancy to the wood products, comprising contacting the wood products with a composition comprising an aqueous solution of a mixture of bisphosphonic acid, in particular 1-hydroxyethane 1,1-diphosphonic acid, and an alkanol amine, and optionally an alkaline agent, or an aqueous solution of a reaction products of bisphosphonic acid, in particular 1-hydroxyethane 1,1-diphosphonic acid, and an alkanol amine, and optionally an alkaline agent, characterized in that at least 75 mole-% of the alkanol amine is added is free form, and said composition having a pH in the range of 3.0 to 9.0.
An inhibitor of the huTNFR1 receptor which is a humanized antibody construct that monovalently recognizes huTNFR1 through an antigen-binding moiety, wherein the antigen-binding moiety comprises - a heavy chain variable domain that comprises the CDR sequences CDRH1, CDRH2, and CDRH3, and - a light chain variable domain that comprises the CDR sequences CDRL1, CDRL2, and CDRL3; wherein: a) the CDRH1 sequence is identified as SEQ ID 1; b) the CDRH2 sequence is identified as SEQ ID 10, wherein X at position 5 is S; c) the CDRH3 sequence is identified as SEQ ID 3; d) the CDRL1 sequence is identified as SEQ ID 4; e) the CDRL2 sequence is identified as SEQ ID 5; and f) the CDRL3 sequence is identified as SEQ ID 11, wherein X at position 3 is S or G; and wherein i) the VH comprises or consists of SEQ ID 13; and the VL comprises or consists of SEQ ID 19, or ii) the VH comprises or consists of SEQ ID 13; and the VL comprises or consists of SEQ ID 17. - a heavy chain variable domain that comprises the CDR sequences CDRH1, CDRH2, and CDRH3, and - a light chain variable domain that comprises the CDR sequences CDRL1, CDRL2, and CDRL3; wherein: a) the CDRH1 sequence is identified as SEQ ID 1; b) the CDRH2 sequence is identified as SEQ ID 10, wherein X at position 5 is S; c) the CDRH3 sequence is identified as SEQ ID 3; d) the CDRL1 sequence is identified as SEQ ID 4; e) the CDRL2 sequence is identified as SEQ ID 5; and f) the CDRL3 sequence is identified as SEQ ID 11, wherein X at position 3 is S or G; a) the CDRH1 sequence is identified as SEQ ID 1; b) the CDRH2 sequence is identified as SEQ ID 10, wherein X at position 5 is S; c) the CDRH3 sequence is identified as SEQ ID 3; d) the CDRL1 sequence is identified as SEQ ID 4; e) the CDRL2 sequence is identified as SEQ ID 5; and f) the CDRL3 sequence is identified as SEQ ID 11, wherein X at position 3 is S or G; and wherein i) the VH comprises or consists of SEQ ID 13; and the VL comprises or consists of SEQ ID 19, or ii) the VH comprises or consists of SEQ ID 13; and the VL comprises or consists of SEQ ID 17. i) the VH comprises or consists of SEQ ID 13; and the VL comprises or consists of SEQ ID 19, or ii) the VH comprises or consists of SEQ ID 13; and the VL comprises or consists of SEQ ID 17.
An apparatus for joining two hollow organ sections with an annular array of surgical staples, the apparatus comprising: a staple cartridge component including a plurality of surgical staples in an annular array; an anvil component including an anvil member and a shaft extending therefrom, the anvil member defining a plurality of staple pockets for deforming the surgical staples, the anvil component movable relative to the staple cartridge component between spaced apart and approximated positions to adjustably clamp tissue between the staple cartridge and anvil components; a buttress member concentrically aligned with the plurality of staple pockets defined in the anvil member; and a buttress mount having a core ring and at least one support member radially extending outward from said core ring to secure the buttress member to the anvil member, the at least one support member at least partially underlying the buttress member to provide support thereto, said apparatus being characterized in that, the at least one support member at least partially overlies one of the plurality of staple pockets such that the buttress mount is arranged so that a portion of the at least one support member is stapled to tissue. a staple cartridge component including a plurality of surgical staples in an annular array; an anvil component including an anvil member and a shaft extending therefrom, the anvil member defining a plurality of staple pockets for deforming the surgical staples, the anvil component movable relative to the staple cartridge component between spaced apart and approximated positions to adjustably clamp tissue between the staple cartridge and anvil components; a buttress member concentrically aligned with the plurality of staple pockets defined in the anvil member; and a buttress mount having a core ring and at least one support member radially extending outward from said core ring to secure the buttress member to the anvil member, the at least one support member at least partially underlying the buttress member to provide support thereto, said apparatus being characterized in that, the at least one support member at least partially overlies one of the plurality of staple pockets such that the buttress mount is arranged so that a portion of the at least one support member is stapled to tissue.
A data transmission method, comprising: selecting, by user equipment, UE, a preamble sequence, and acquiring an uplink time-frequency resource and a downlink time-frequency resource that are corresponding to the preamble sequence; sending the preamble sequence to a base station, so that the base station decodes the preamble sequence, and determines, according to the decoded preamble sequence, the uplink time-frequency resource and the downlink time-frequency resource that are corresponding to the decoded preamble sequence; and if decoding response information sent from the base station is received by using the downlink time-frequency resource, sending a data packet to the base station by using the uplink time-frequency resource, wherein the decoding response information is used to indicate that the base station successfully decodes the preamble sequence. selecting, by user equipment, UE, a preamble sequence, and acquiring an uplink time-frequency resource and a downlink time-frequency resource that are corresponding to the preamble sequence; sending the preamble sequence to a base station, so that the base station decodes the preamble sequence, and determines, according to the decoded preamble sequence, the uplink time-frequency resource and the downlink time-frequency resource that are corresponding to the decoded preamble sequence; and if decoding response information sent from the base station is received by using the downlink time-frequency resource, sending a data packet to the base station by using the uplink time-frequency resource, wherein the decoding response information is used to indicate that the base station successfully decodes the preamble sequence.
An in vitro method of detecting Polycomb Repressive Complex activity in a cell, the method comprising the step of providing a cell with a DNA having a protein binding site and at least one reporter gene expression site that is operatively connected to said protein binding site, wherein said protein binding site is located at a transcriptionally neutral locus or region of the genome of the cell, wherein the transcriptionally neutral locus or region lacks genes and regulatory elements such as promoters or enhancers and lacks active and repressive histone modifications, and with a DNA comprising a recombinant gene of a binding protein, said binding protein being capable of binding to said protein binding site, wherein said binding protein is fused to a member of the PRC, said method further comprising the steps of expressing said recombinant gene, letting said fused binding protein bind to said protein binding site and detecting at least one reporter gene expression; wherein the cell is not a human totipotent cell.
A system for monitoring the state of a cable, the system comprising a plurality of reflectometry devices (M 1, M 2, M 3,... M n-1, M n), each capable of injecting a test signal at an injection point of the cable and of measuring a signal back-propagated through the cable at the injection point of the cable, the reflectometry devices being intended to be positioned along the cable at predetermined positions so as to divide the cable into several successive sections (S 1, S 2... S n-1), wherein each section is defined by a first reflectometry device located at the beginning of the section and a second reflectometry device disposed at the end of the section, the system comprising a control component (CTRL) capable of communicating with the reflectometry devices and configured so as to carry out at least one reflectometry test involving injecting a test signal into the cable by means of a first reflectometry device and measuring the test signal, by means of the first reflectometry device, after it has propagated through the cable and it has reflected on an impedance discontinuity, the system further comprising a post-processing component capable of communicating with the reflectometry devices and configured to analyse the measurement of the test signal to detect an amplitude peak corresponding to a fault, with the control component (CTRL) being configured to control, according to a predefined test procedure, each reflectometry device by activating or deactivating the injection of a test signal into the cable by means of said device and by activating or deactivating the acquisition of a measurement of a signal propagating through the cable by means of said device, the test procedure involving successively executing the following commands: - activating the injection of a test signal by a first reflectometry device (M 1) located at the beginning of a first section (S 1) of the cable; - activating the acquisition of a signal measurement by the first reflectometry device (M 1); - deactivating, after a first predetermined monitoring duration, the injection of a test signal by the first device (M 1), deactivating the acquisition of a measurement by the first device (M 1); - the procedure further comprising reiterating the preceding steps for at least one other section of the cable. - activating the injection of a test signal by a first reflectometry device (M 1) located at the beginning of a first section (S 1) of the cable; - activating the acquisition of a signal measurement by the first reflectometry device (M 1); - deactivating, after a first predetermined monitoring duration, the injection of a test signal by the first device (M 1), deactivating the acquisition of a measurement by the first device (M 1); - the procedure further comprising reiterating the preceding steps for at least one other section of the cable.