mhurhangee/ep-ind-claims huggingface dataset:
An isolated nucleic acid sequence originating from CMS virus having a sequence selected from the group consisting of SEQ ID No. 1, SEQ ID No. 2, SEQ ID No. 4 and SEQ ID No. 6, and variants thereof being at least 70 % identical over the entire sequence with any of the sequences SEQ ID No. 2, SEQ ID No. 4 and SEQ ID No. 6.
Method for manufacturing a chromium metal - chromium oxide coated substrate by electrolytically depositing the chromium metal - chromium oxide coating on an electrically conductive substrate from an electrolyte solution that comprises a trivalent chromium compound and a chelating agent, wherein the electrolyte solution is free of chloride ions and of a boric acid buffering agent, the electrically conductive substrate acts as a cathode and an anode comprising a catalytic coating of iridium oxide or a mixed metal oxide is chosen for reducing or eliminating the oxidation of Cr -ions to Cr -ions.
A microfabricated sensor for detecting a component in bodily fluid, comprising; an inlet means for receiving a sample of bodily fluid, a fluid cavity connected to the inlet means for receiving the sample of bodily fluid from the inlet means, an RF resonant cavity, delimited by walls, wherein at least one of the walls forms a separating wall, separating the fluid cavity from the RF resonant cavity, wherein the separating wall is configured such that the dielectric properties of the bodily fluid in the fluid cavity provide an influence on the electromagnetic properties of the RF resonant cavity, characterised in that the separating wall comprises a membrane.
A projector comprising: a main body case a cooling fan; a control circuit board; a light source device disposed in the vicinity of an air discharge port of the cooling fan, and a plurality of heat sources (101, 51), characterized in that the control circuit board is disposed in the vicinity of a suction port of the cooling fan perpendicularly to a suction air flow direction, the cooling fan is disposed in the vicinity of the center of the projector, the projector is adapted to draw air from a plurality of directions, excluding a direction of the light source device, within the main body case of the projector which surround the cooling fan along the control circuit board into the air suction port to thereby cool the control circuit board and the plurality of heat sources (101, 51) other than the light source device which surround the cooling fan, and to blow air discharged from the air discharge port against the light source device and to discharge the air blown against the light source device to an exterior of the main body case of the projector. a main body case a cooling fan; a control circuit board; a light source device disposed in the vicinity of an air discharge port of the cooling fan, and a plurality of heat sources (101, 51), characterized in that the control circuit board is disposed in the vicinity of a suction port of the cooling fan perpendicularly to a suction air flow direction, the cooling fan is disposed in the vicinity of the center of the projector, the projector is adapted to draw air from a plurality of directions, excluding a direction of the light source device, within the main body case of the projector which surround the cooling fan along the control circuit board into the air suction port to thereby cool the control circuit board and the plurality of heat sources (101, 51) other than the light source device which surround the cooling fan, and to blow air discharged from the air discharge port against the light source device and to discharge the air blown against the light source device to an exterior of the main body case of the projector.
A vehicle status display apparatus of a hybrid vehicle, comprising: a display device configured to output a display related to a threshold indicating an engine start criterion under a traveling status using an electric motor; and a processing device; characterized in that when the threshold changes, the processing device is adapted to change the display due to the change of the threshold such that a change manner of the display in a case where the threshold changes due to an operation of a vehicle's occupant is different from a change manner of the display in a case where the threshold changes due to a factor other than the operation of the vehicle's occupant. a display device configured to output a display related to a threshold indicating an engine start criterion under a traveling status using an electric motor; and a processing device; characterized in that when the threshold changes, the processing device is adapted to change the display due to the change of the threshold such that a change manner of the display in a case where the threshold changes due to an operation of a vehicle's occupant is different from a change manner of the display in a case where the threshold changes due to a factor other than the operation of the vehicle's occupant.
Method for producing an imitation leather comprising a textile supporting material and a covering applied to one side of the supporting material, wherein the covering is produced based on polyvinyl chloride and comprises three successively applied layers,,, including the following steps: 1. applying the third layer of the covering, which forms the subsequent top layer, in a paste form onto a removable backing and subsequent drying of the third layer; 2. applying the second layer of the covering as an intermediate layer onto the dried third layer and subsequent drying of the second layer 22; 3. applying the first layer of the covering in the paste form onto the dried second layer; 4. placing the textile supporting material onto the first layer, which is in paste form, and subsequent drying of the first layer; 5. detaching the third layer from the backing; 6. embossing at least the third layer of the covering, characterised in that a three-dimensional support material is used and that the embossing is by the vacuum-embossing method at a temperature of between 130°C and 250°C. 1. applying the third layer of the covering, which forms the subsequent top layer, in a paste form onto a removable backing and subsequent drying of the third layer; 2. applying the second layer of the covering as an intermediate layer onto the dried third layer and subsequent drying of the second layer 22; 3. applying the first layer of the covering in the paste form onto the dried second layer; 4. placing the textile supporting material onto the first layer, which is in paste form, and subsequent drying of the first layer; 5. detaching the third layer from the backing; 6. embossing at least the third layer of the covering,
An insulator for an electric fence having at least one wire, including: a body having a first end and a second end; a post connector portion at the first end of the body, for connecting the insulator to a fence post, wherein the post connector portion includes a post bearing surface facing away from the second end of the body; a wire attachment portion at the second end of the body; and at least one shield surrounding and extending outwardly from the body at a position away from the connector portion towards the second end, the shield including lateral portions (34a, 34b) on either side of the body, characterised in that the lateral portions (34a, 34b) of the shield, angle away from the second end of the body towards the first end of the body, wherein the lateral portions (34a, 34b) of the shield intersect a transverse plane, wherein the transverse plane is substantially perpendicular with the longitudinal axis, wherein the transverse plane intersects a portion of the post bearing surface closest to the second end of the body, and wherein an outer edge of the shield is curved along its length towards the longitudinal axis, such that when installed a straight section of the wire cannot bear against respective edges of both lateral portions (34a, 34b) simultaneously, and pass along their entire lengths, without contacting the fence post. a body having a first end and a second end; a post connector portion at the first end of the body, for connecting the insulator to a fence post, wherein the post connector portion includes a post bearing surface facing away from the second end of the body; a wire attachment portion at the second end of the body; and at least one shield surrounding and extending outwardly from the body at a position away from the connector portion towards the second end, the shield including lateral portions (34a, 34b) on either side of the body, characterised in that the lateral portions (34a, 34b) of the shield, angle away from the second end of the body towards the first end of the body, wherein the lateral portions (34a, 34b) of the shield intersect a transverse plane, wherein the transverse plane is substantially perpendicular with the longitudinal axis, wherein the transverse plane intersects a portion of the post bearing surface closest to the second end of the body, and wherein an outer edge of the shield is curved along its length towards the longitudinal axis, such that when installed a straight section of the wire cannot bear against respective edges of both lateral portions (34a, 34b) simultaneously, and pass along their entire lengths, without contacting the fence post.
An electric multisystem configured to be arranged on board a rail vehicle and comprising • a first connector means (22, 23) configured to one at a time connect either a first connection point (a) of the electric system to an AC-contact line or a second connection point (b) of the electric system to a DC-contact line, • a transformer comprising a primary winding, to which the first connection point (a) is connected, • a line converter (7, 13) to which a secondary winding (5, 6) of the transformer is connected and which has at least one bridge with two phase-legs (27, 28) connected in parallel between opposite poles (29, 30) of a DC intermediate link (14, 18) and having each at least two current valves connected in series, each said current valve comprising a semiconductor device of turn-off type and a rectifying member connected in anti-parallel therewith, a midpoint (43, 44) of each phase-leg dividing the phase-leg in two identical halves being connected to said secondary winding of the transformer, and • a control unit configured to control the current valves of the line converter (7, 13) by controlling said semiconductor devices thereof, in which a second connector means (70, 71) is configured to connect said secondary winding (5, 6) of the transformer to the second connection point (b) characterized in that the secondary winding of the transformer is divided into two halves (51-54, 61-64) connected in series, that the second connector means is configured to connect said second connection point (b) to a midpoint of the secondary winding of the transformer between said two halves (51, 52) thereof, and that the control unit is, when the electric system is fed through a DC-contact line, configured to control the line converter (13, 7) to together with the inductor of each half of the secondary winding used as a step-up chopper inductor act as a DC to DC-chopper for adjusting the level of the DC voltage delivered to the DC intermediate link (14, 18). • a first connector means (22, 23) configured to one at a time connect either a first connection point (a) of the electric system to an AC-contact line or a second connection point (b) of the electric system to a DC-contact line, • a transformer comprising a primary winding, to which the first connection point (a) is connected, • a line converter (7, 13) to which a secondary winding (5, 6) of the transformer is connected and which has at least one bridge with two phase-legs (27, 28) connected in parallel between opposite poles (29, 30) of a DC intermediate link (14, 18) and having each at least two current valves connected in series, each said current valve comprising a semiconductor device of turn-off type and a rectifying member connected in anti-parallel therewith, a midpoint (43, 44) of each phase-leg dividing the phase-leg in two identical halves being connected to said secondary winding of the transformer, and • a control unit configured to control the current valves of the line converter (7, 13) by controlling said semiconductor devices thereof,
A compound of the following formula: or a pharmaceutically acceptable salt thereof, a stereoisomer or a mixture of stereoisomer in any proportion, in particular a mixture of enantiomers, and particularly a racemate mixture, in which R represents a group -(CHR 2)-(CHR 3) n -X, in which: - n represents 1, - X represent a group COOH or NHR 1, with R 1 representing a hydrogen atom or a - Alk, -C -Alk or -C O-Alk group, Alk representing a (C 1 -C 6)alkyl group, and - R 2 and R 3 represent, independently of each other, a hydrogen atom or a (C 1 -C 8)alkyl group, preferably a (C 1 -C 4)alkyl group, optionally substituted with a group COOH or NHR 1, preferably at least R 2 or R 3 representing a hydrogen atom. - n represents 1, - X represent a group COOH or NHR 1, with R 1 representing a hydrogen atom or a - Alk, -C -Alk or -C O-Alk group, Alk representing a (C 1 -C 6)alkyl group, and - R 2 and R 3 represent, independently of each other, a hydrogen atom or a (C 1 -C 8)alkyl group, preferably a (C 1 -C 4)alkyl group, optionally substituted with a group COOH or NHR 1, preferably at least R 2 or R 3 representing a hydrogen atom.
A printing method, comprising: applying a fixer fluid to a print area in a pattern comprising borders to form cells (214,224), the borders consisting of fixer fluid and the cells having a predetermined area without the fixer fluid, wherein the fixer fluid is a pretreatment fluid; and applying ink to the print area independently from the pattern of the fixer fluid, after applying the fixer fluid, wherein the borders isolate the predetermined area of each cell from the predetermined areas of other cells of the print area, characterized in that the fixer fluid is applied in a non-periodic grid. applying a fixer fluid to a print area in a pattern comprising borders to form cells (214,224), the borders consisting of fixer fluid and the cells having a predetermined area without the fixer fluid, wherein the fixer fluid is a pretreatment fluid; and applying ink to the print area independently from the pattern of the fixer fluid, after applying the fixer fluid, wherein the borders isolate the predetermined area of each cell from the predetermined areas of other cells of the print area, characterized in that the fixer fluid is applied in a non-periodic grid.
Autonomous locomotion device, in particular autonomous lawn mower, which, following a learning process, moves onwards and/or orients itself automatically in an environment, comprising at least one working surface processing unit, comprising at least one image capture unit for recording at least one environmental image and/or at least one environmental image sequence, comprising at least one computing unit at least for evaluating the recorded environmental image and/or the recorded environmental image sequence, and comprising at least one memory unit for storing at least one environmental image and/or at least one environmental image sequence, the computing unit, in at least one operating state for developing a movement strategy, carrying out a movement estimation by means of a comparison of at least one environmental image recorded by means of the image capture unit and/or an environmental image sequence recorded by means of the image capture unit with an environmental image stored in the memory unit and/or with an environmental image sequence stored in the memory unit, the environmental image stored in the memory unit and/or the environmental image sequence stored in the memory unit being recorded by the image capture unit during the learning process, chronologically before the recorded environmental image and/or before the recorded environmental image sequence for the comparison by means of the computing unit, and being stored in the memory unit, characterized in that in addition to the recorded environmental image and/or the recorded environmental image sequence, further data which are useful for control in a learned working environment are stored in the memory unit during the learning process, which additional data are formed as the operating state of the working surface processing unit during a recording of the respective environmental image and/or the respective environmental image sequence.
A data processing method, comprising: receiving, by a source physical machine, a first data packet, wherein the first data packet comprises first data, and a destination address of the first data is a first virtual machine; generating, by the source physical machine, a second data packet, wherein the second data packet comprises the first data and an identifier of a second virtual machine, the second virtual machine is the first virtual machine after being live migrated from the source physical machine to a destination physical machine; wherein the identifier of the second virtual machine is used to identify the second virtual machine on the destination physical machine, and the identifier of the second virtual machine is the virtual network interface card identifier of the second virtual machine; wherein the second data packet further comprises a Virtual Extensible LAN, VXLAN, header configured to carry a special VXLAN Network Identifier, VNI, to indicate that the data packet is uplink jump-off point traffic; wherein the jump-off point has a data forwarding function; wherein a jump-off point module of a virtual switch in the source physical machine re-encapsulates the inner packet of the second data packet by adding the identifier of the second virtual machine; and sending, by the source physical machine, the second data packet to the destination physical machine on which the second virtual machine is located. receiving, by a source physical machine, a first data packet, wherein the first data packet comprises first data, and a destination address of the first data is a first virtual machine; generating, by the source physical machine, a second data packet, wherein the second data packet comprises the first data and an identifier of a second virtual machine, the second virtual machine is the first virtual machine after being live migrated from the source physical machine to a destination physical machine; wherein the identifier of the second virtual machine is used to identify the second virtual machine on the destination physical machine, and the identifier of the second virtual machine is the virtual network interface card identifier of the second virtual machine; wherein the second data packet further comprises a Virtual Extensible LAN, VXLAN, header configured to carry a special VXLAN Network Identifier, VNI, to indicate that the data packet is uplink jump-off point traffic; wherein the jump-off point has a data forwarding function; wherein a jump-off point module of a virtual switch in the source physical machine re-encapsulates the inner packet of the second data packet by adding the identifier of the second virtual machine; and sending, by the source physical machine, the second data packet to the destination physical machine on which the second virtual machine is located.
A first electronic device comprising: a controller; one or more alternative communication means; and a communication unit, wherein the controller is configured to transmit through a first communication link formed through the communication unit to a second electronic device a first handover request message to request formation of a second communication link that has a different type from the type of the first communication link wherein the second communication link is formed through an alternative communication means of the first electronic device, wherein the first handover request message comprises a collision resolution record including a random number, wherein the first communication link is a NFC link, wherein the controller is configured to receive through the first communication link a handover select message including information on a power state of an alternative communication means of the second electronic device from the second electronic device, and wherein the controller is configured to form the second communication link through the alternative communication means of the first electronic device and the alternative communication means of the second electronic device to exchange data with the second electronic device through the formed second communication link. a controller; one or more alternative communication means; and a communication unit, wherein the controller is configured to transmit through a first communication link formed through the communication unit to a second electronic device a first handover request message to request formation of a second communication link that has a different type from the type of the first communication link wherein the second communication link is formed through an alternative communication means of the first electronic device, wherein the first handover request message comprises a collision resolution record including a random number, wherein the first communication link is a NFC link, wherein the controller is configured to receive through the first communication link a handover select message including information on a power state of an alternative communication means of the second electronic device from the second electronic device, and wherein the controller is configured to form the second communication link through the alternative communication means of the first electronic device and the alternative communication means of the second electronic device to exchange data with the second electronic device through the formed second communication link.