mhurhangee/ep-ind-claims huggingface dataset:
A method of distinguishing between a patient with aggressive, prostatic adenocarcinoma and a patient with indolent, prostatic adenocarcinoma, which method comprises: (a) contacting a sample from the patient with a set of detectably labeled probes comprising a locus-specific probe for MYC, a locus-specific probe for FGFR1, and a break-apart probe for ERG, under hybridizing conditions, wherein the locus-specific probe for FGFR1 is used to determine % loss of FGFR1, (b) determining the presence of a chromosomal abnormality in the sample, wherein (i) a MYC % gain (% gain is % of cells with MYC copy numbers > 2) of greater than or equal to two to less than or equal to 30, (ii) a FGFR1 % loss (% loss is % of cells with FGFR copy numbers < 2) of greaterthan or equal to 15 to less than or equal to 40, (iii) a FGFR1 % gain (% gain is % of cells with FGFR copy numbers > 2) of greater than or equal to two to less than or equal to 46, and/or (iv) a ERG 2+Edel of greater than or equal to one to less than or equal to 30, indicates that the patient has a high risk of developing aggressive, prostatic adenocarcinoma, and wherein the absence of any of (i)-(iv) above indicates that the patient has indolent, prostatic adenocarcinoma, whereupon a patient with aggressive, prostatic adenocarcinoma is distinguished from a patient with indolent, prostatic adenocarcinoma. (a) contacting a sample from the patient with a set of detectably labeled probes comprising a locus-specific probe for MYC, a locus-specific probe for FGFR1, and a break-apart probe for ERG, under hybridizing conditions, wherein the locus-specific probe for FGFR1 is used to determine % loss of FGFR1, (b) determining the presence of a chromosomal abnormality in the sample, wherein (i) a MYC % gain (% gain is % of cells with MYC copy numbers > 2) of greater than or equal to two to less than or equal to 30, (ii) a FGFR1 % loss (% loss is % of cells with FGFR copy numbers < 2) of greaterthan or equal to 15 to less than or equal to 40, (iii) a FGFR1 % gain (% gain is % of cells with FGFR copy numbers > 2) of greater than or equal to two to less than or equal to 46, and/or (iv) a ERG 2+Edel of greater than or equal to one to less than or equal to 30, indicates that the patient has a high risk of developing aggressive, prostatic adenocarcinoma, and wherein the absence of any of (i)-(iv) above indicates that the patient has indolent, prostatic adenocarcinoma, whereupon a patient with aggressive, prostatic adenocarcinoma is distinguished from a patient with indolent, prostatic adenocarcinoma. (i) a MYC % gain (% gain is % of cells with MYC copy numbers > 2) of greater than or equal to two to less than or equal to 30, (ii) a FGFR1 % loss (% loss is % of cells with FGFR copy numbers < 2) of greaterthan or equal to 15 to less than or equal to 40, (iii) a FGFR1 % gain (% gain is % of cells with FGFR copy numbers > 2) of greater than or equal to two to less than or equal to 46, and/or (iv) a ERG 2+Edel of greater than or equal to one to less than or equal to 30,
An optical information transmitting apparatus for transmitting information using a visible light, the optical information transmitting apparatus comprising: at least three light emitting devices (21-1, 21-2, 21-3), each light emitting device being installed at a predetermined distance and in a predetermined direction from at least one of the remaining light emitting devices; and a data transmitting unit configured to transmit data by controlling the at least three light emitting devices; wherein the data transmitting unit is further configured to control each of the at least three light emitting devices so as to transmit information of the distance between neighbouring light emitting devices of the at least three light emitting devices. at least three light emitting devices (21-1, 21-2, 21-3), each light emitting device being installed at a predetermined distance and in a predetermined direction from at least one of the remaining light emitting devices; and a data transmitting unit configured to transmit data by controlling the at least three light emitting devices; wherein the data transmitting unit is further configured to control each of the at least three light emitting devices so as to transmit information of the distance between neighbouring light emitting devices of the at least three light emitting devices.
A method for peer-to-peer, P2P, networking operable by an originating user equipment, UE, supported by a wireless wide area network, comprising: transmitting a request for P2P service discovery and group formation assistance to a discovery server via a serving node over an air-interface channel; receiving scoped information from the discovery server for participating in a P2P communication session; and establishing the P2P communication session with at least one terminating UE based at least in part on the received scoped information, wherein the establishing further comprises selecting a packet delivery network gateway to establish communications with the at least one terminating UE. transmitting a request for P2P service discovery and group formation assistance to a discovery server via a serving node over an air-interface channel; receiving scoped information from the discovery server for participating in a P2P communication session; and establishing the P2P communication session with at least one terminating UE based at least in part on the received scoped information, wherein the establishing further comprises selecting a packet delivery network gateway to establish communications with the at least one terminating UE.
Dishwasher, in particular domestic dishwasher, comprising a washing chamber for receiving dishes, cutlery or similar objects to be cleaned, water being able to be supplied to the washing chamber via at least one circulating pump (6; 6a; 6b), and the circulating pump (6; 6a; 6b) comprising a fixed suction channel running centrally on a rotatable impeller and defined by a tubular region, characterised in that the impeller at its end facing the defining tubular region of the suction channel of its body or of its drive shaft is provided with a sliding region (13; 13a; 13b) which is immobile relative to the impeller and a housing at the end of the tubular region axially facing the impeller or a sleeve receiver associated therewith is provided with a thrust ring (14; 14a; 14b) which is fixed relative to the suction channel, and that during operation the sliding region (13; 13a; 13b) may be rotated relative to the thrust ring (14; 14a; 14b) and thus the sliding region and the thrust ring (13; 13a; 13b; 14; 14a; 14b) form in a dual function a bearing for the impeller and a sealing system against the return of water into the suction channel, wherein the impeller outside this bearing arrangement (13; 14) is free of bearing points restricting its axial movement.
An apparatus, comprising: a uniform composite material including a non-layered mixture of: an elastomeric polymer foam; a plurality of conductive fillers (110, 115) disposed in said elastomeric polymer foam, the uniform composite material producing a piezoelectric voltage, without an external current producing device, in response to being deformed, at least one probe (305, 310) disposed in the uniform composite material; and a voltage detector coupled to the at least one probe and configured to detect said piezoelectric voltage, wherein the apparatus lacks any external current producing device for producing a current flowing through the uniform composite material. a uniform composite material including a non-layered mixture of: an elastomeric polymer foam; a plurality of conductive fillers (110, 115) disposed in said elastomeric polymer foam, the uniform composite material producing a piezoelectric voltage, without an external current producing device, in response to being deformed, at least one probe (305, 310) disposed in the uniform composite material; and a voltage detector coupled to the at least one probe and configured to detect said piezoelectric voltage, wherein the apparatus lacks any external current producing device for producing a current flowing through the uniform composite material.
An electrode system for a bandage having a carrier element, the electrode system having at least two electrodes, and having at least two fluid-fillable pads, that can be arranged on the carrier element, wherein at least one electrode is arranged on each pad, and wherein the pads are connected to one another via at least one fluid connection so as to allow internal-pressure equalization between the at least two pads.
Seal arrangement for sealing with respect to the external atmosphere of modules of a system for storing and/or for transporting liquids which form crystals upon contact with the external atmosphere, the seal arrangement comprising at least one seal, characterized in that the seal arrangement has at least one gap which follows the seal in the direction of the external atmosphere and is designed in such way that liquid which exits through the seal can remain therein, can come into contact with the external atmosphere and can form crystals.
A system comprising two or more pumps (B1, B2) connected in parallel, a delivery manifold to which the outputs of the two or more pumps (B1, B2) are connected, which comprises respective electronic pressure switches (P1, P2) equipped with pressure sensors (S1, S2) connected to the delivery manifold to control the operation of each pump (B1, B2), characterised in that the pressure switches (P1, P2) are configured to alternate their operation between two or more start-up pressure configurations (Pmax1, Pmax2) and shut-down pressure configurations (Pmin1, Pmin2): - a first configuration with a first shut-down pressure (Pmax1) and a first start-up pressure (Pmin1); - a second configuration with a second shut-down pressure (Pmax2) and a second start-up pressure (Pmin2); wherein the first shut-down pressure (Pmax1) is greater than the second shut-down pressure (Pmax2) and wherein the first start-up pressure (Pmin1) is greater than the second start-up pressure (Pmin2), wherein the pressure switches (P1, P2) are configured to perform said alternation according to a pressure reading (Pimp) of the delivery manifold with the pressure sensor(s) (S1, S2). - a first configuration with a first shut-down pressure (Pmax1) and a first start-up pressure (Pmin1); - a second configuration with a second shut-down pressure (Pmax2) and a second start-up pressure (Pmin2);
A cardiac potential detection device for detecting R-waves from an electrocardiographic waveform, the cardiac potential detection device comprising: a plurality of electrodes; a detector configured to detect an input voltage applied from the plurality of electrodes; and a control unit having an R-wave detection threshold by which an R-wave is identified and being configured to identify an R-wave based on the input voltage, the control unit being characterized by suspending identifying an R-wave in a detection-suspension period including a period in which the input voltage exceeds a predetermined threshold, and identifying an R-wave candidate based on the R-wave detection threshold in a period excluding the detection-suspension period, the R-wave candidate being identified as an R-wave when the input voltage does not exceed the predetermined threshold in a period from identification of the R-wave candidate until a predetermined time expires. a plurality of electrodes; a detector configured to detect an input voltage applied from the plurality of electrodes; and a control unit having an R-wave detection threshold by which an R-wave is identified and being configured to identify an R-wave based on the input voltage, the control unit being characterized by suspending identifying an R-wave in a detection-suspension period including a period in which the input voltage exceeds a predetermined threshold, and identifying an R-wave candidate based on the R-wave detection threshold in a period excluding the detection-suspension period, the R-wave candidate being identified as an R-wave when the input voltage does not exceed the predetermined threshold in a period from identification of the R-wave candidate until a predetermined time expires.
Method for processing open cut edges of a packaging cover, blank or web of a packaging material which has been rolled up into a roll, in particular cardboard/plastics composite material, by applying or introducing a processing agent which has a sterilisation agent onto or into the outer region of the cut edges, characterised in that at least a portion of the processing agent is not applied directly to the cut edges, but instead a loading of a loading carrier which receives the processing agent is carried out so that an actively sterilising atmosphere which is produced subsequently acts on the open cut edges of the packaging cover, blank or web and carries out the desired sterilisation, wherein the actively sterilising atmosphere which is produced is separated from the environment by a container.
Luminaire comprising: - a lighting section with. at least one light source and. a luminaire housing (20, 30) enclosing this, as well as - an operating section with. an operating apparatus and. an operating housing enclosing this wherein the luminaire housing (20, 30) and the operating housing are so arranged with respect to one another that the two housings (20, 30; 50) comprise the at least one light source and the operating device at least in a moisture-tight manner outwards with respect to the luminaire, wherein the operating housing comprises a first passage opening, which is closed by means of a detachably mounted cover on a first side not facing the luminaire housing (20, 30), and wherein the operating device is so designed and arranged that it may be inserted and removed from the outside with respect to the luminaire through the first through-opening, wherein the operating housing is fastened to a housing part of the luminaire housing (20,30), wherein the operating housing has a second passage opening on a second side not facing the lamp housing (20, 30) through which the operating device is electrically coupled to at least one external power supply line, wherein the first side of the operating housing lies opposite the second side of the operating housing. - a lighting section with. at least one light source and. a luminaire housing (20, 30) enclosing this, as well as. at least one light source and. a luminaire housing (20, 30) enclosing this, as well as - an operating section with. an operating apparatus and. an operating housing enclosing this. an operating apparatus and. an operating housing enclosing this
A headrest (4A, 4D) comprising: a plurality of speakers (25a,25b); fiber pads (15,15) provided to the front surfaces of each of the speakers (25a,25b); a median sound-insulating pad provided between the fiber pads; outside sound-insulating pads (16a,16b) provided on the outer sides of the fiber pads (15,15); and a surface skin for covering the speakers, the fiber pads, and the sound-insulating pads (16,16a,16b), wherein: the fiber pads (15,15) are formed from an elastic material that has a three-dimensional-mesh structure therein; the sound-insulating pads (16,16a,16b) are formed from an elastic material for minimizing the transmission of sound; the fiber pads (15,15) are filled into spaces formed by the median sound-insulating pad and the outside sound-insulating pads (16a, 16b); and the spaces formed by the median sound-insulating pad and the outside sound-insulating pads (16a,16b) have shapes extending laterally in a direction from a location near the plurality of speakers toward a location away from the plurality of speakers. a plurality of speakers (25a,25b); fiber pads (15,15) provided to the front surfaces of each of the speakers (25a,25b); a median sound-insulating pad provided between the fiber pads; outside sound-insulating pads (16a,16b) provided on the outer sides of the fiber pads (15,15); and a surface skin for covering the speakers, the fiber pads, and the sound-insulating pads (16,16a,16b), wherein: the fiber pads (15,15) are formed from an elastic material that has a three-dimensional-mesh structure therein; the sound-insulating pads (16,16a,16b) are formed from an elastic material for minimizing the transmission of sound; the fiber pads (15,15) are filled into spaces formed by the median sound-insulating pad and the outside sound-insulating pads (16a, 16b); and the spaces formed by the median sound-insulating pad and the outside sound-insulating pads (16a,16b) have shapes extending laterally in a direction from a location near the plurality of speakers toward a location away from the plurality of speakers. the fiber pads (15,15) are formed from an elastic material that has a three-dimensional-mesh structure therein; the sound-insulating pads (16,16a,16b) are formed from an elastic material for minimizing the transmission of sound; the fiber pads (15,15) are filled into spaces formed by the median sound-insulating pad and the outside sound-insulating pads (16a, 16b); and the spaces formed by the median sound-insulating pad and the outside sound-insulating pads (16a,16b) have shapes extending laterally in a direction from a location near the plurality of speakers toward a location away from the plurality of speakers.
A method for producing an optical fiber wherein the optical fiber includes a pumping core configured as a fiber core and a fiber core jacket configured as a pump cladding and a cylinder symmetry of the produced fiber is disturbed, wherein the disturbance of the cylinder symmetry causes a chaotic beam path in the fiber based on a preform which includes a core material and a jacket and which is subjected to a fiber pulling process, characterized in that the preform includes the jacket that is arranged about the core material and which is made from plural individual jacket layers (2; 3; 4) and at least one of the jacket layers is configured over at least one longitudinal section as a circular ring sector layer made from at least one circular ring sector, wherein an individual circular ring sector is produced by several divisions of a tube in the longitudinal direction, wherein edges are broken and/or beveled so that the circular ring sector outline is shortened and separation edges of the circular ring sectors are thermally polished after the separation process and/or melted to form a smooth surface, wherein the core material and the jacket layers (2, 3, 4) of the preform are melted before or during the fiber pulling process, wherein the pump cladding is produced by melting at least one circular ring sector made from a quartz glass that is non-doted or provided with a dopant which reduces the refractory index between the first and the second jacket layer and wherein the melting of the at least one circular ring sector in an interior of the pump core disturbs a cylinder symmetry of the pump core and the coupled pump light is almost completely absorbable in the fiber core due to a chaotic beam path in the pump core.
A method of storing, by a load and store circuit or other processing means, a variable precision floating point value to a memory address of a memory (612, 618), the method comprising: generating the variable precision floating point value using a variable precision floating point processor or co-processor and storing the variable precision floating point value to one or more registers; and storing the variable precision floating point value from the one or more registers to the memory by: - reducing the bit length of the variable precision floating point value from a value that exceeds a size limit to a value that is no more than the size limit; and - storing the variable precision floating point value to one of a plurality of storage zones in the memory, each of the plurality of storage zones having a same storage space size equal to or greater than the size limit. generating the variable precision floating point value using a variable precision floating point processor or co-processor and storing the variable precision floating point value to one or more registers; and storing the variable precision floating point value from the one or more registers to the memory by: - reducing the bit length of the variable precision floating point value from a value that exceeds a size limit to a value that is no more than the size limit; and - storing the variable precision floating point value to one of a plurality of storage zones in the memory, each of the plurality of storage zones having a same storage space size equal to or greater than the size limit. - reducing the bit length of the variable precision floating point value from a value that exceeds a size limit to a value that is no more than the size limit; and - storing the variable precision floating point value to one of a plurality of storage zones in the memory, each of the plurality of storage zones having a same storage space size equal to or greater than the size limit.
Temperature measuring apparatus with at least one measuring element (14, 15, 16), wherein the temperature measuring apparatus has a jacket, preferably a cylindrical and particularly preferably a metallic one, in which the measuring element (14, 15, 16) is arranged, wherein the measuring element (14, 15, 16) comprises a thermocouple consisting of at least two thermowires (2, 3), said thermowires (2, 3) being interconnected at a measuring point (M1, M2, M3) at a height along the longitudinal axis of the jacket, wherein the thermowires (2, 3) extend over a first section along the longitudinal axis of the jacket at least up to the measuring point (M1, M2, M3), characterized in that the measuring element (14, 15, 16) further comprises at least two connecting wires (4, 5), which extend along the longitudinal axis of the jacket over a second section on the side of the measuring point (M1, M2, M3) opposite the thermowires (2, 3) and are connected to the thermowires (2, 3), wherein the two connecting wires (4, 5) are made from a material which has a higher tensile strength than the thermowires (2, 3).