mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: reducing data footprint of an arithmetic circuit comprising information represented by a set of symbols for producing a program whose execution is delegated to one or more nodes of a blockchain network, wherein the arithmetic circuit includes information comprising a total number of wire identifiers, wire identifiers for inputs and outputs of the arithmetic circuit, gates, and wire identifiers of inputs and outputs of the gates, wherein the footprint is reduced by at least: identifying a first subset of at least one wire identifier to apply a simplification rule to, wherein the simplification rule comprises removing the first subset of wire identifiers from the arithmetic circuit to generate a serialised circuit, wherein the first subset of wire identifiers are derivable from at least one of: the remaining wire identifiers, and the total number of inputs of the arithmetic circuit; and applying an entropy coding scheme to the serialised circuit to produce a compressed arithmetic circuit; and causing the compressed arithmetic circuit to be stored. reducing data footprint of an arithmetic circuit comprising information represented by a set of symbols for producing a program whose execution is delegated to one or more nodes of a blockchain network, wherein the arithmetic circuit includes information comprising a total number of wire identifiers, wire identifiers for inputs and outputs of the arithmetic circuit, gates, and wire identifiers of inputs and outputs of the gates, wherein the footprint is reduced by at least: identifying a first subset of at least one wire identifier to apply a simplification rule to, wherein the simplification rule comprises removing the first subset of wire identifiers from the arithmetic circuit to generate a serialised circuit, wherein the first subset of wire identifiers are derivable from at least one of: the remaining wire identifiers, and the total number of inputs of the arithmetic circuit; and applying an entropy coding scheme to the serialised circuit to produce a compressed arithmetic circuit; and identifying a first subset of at least one wire identifier to apply a simplification rule to, wherein the simplification rule comprises removing the first subset of wire identifiers from the arithmetic circuit to generate a serialised circuit, wherein the first subset of wire identifiers are derivable from at least one of: the remaining wire identifiers, and the total number of inputs of the arithmetic circuit; and the remaining wire identifiers, and the total number of inputs of the arithmetic circuit; and applying an entropy coding scheme to the serialised circuit to produce a compressed arithmetic circuit; and causing the compressed arithmetic circuit to be stored.
A plate device for an electrochemical fuel cell stack having stacked cells; wherein the plate device being provided per each cell for distributing and collecting a fluid across planar dimensions of a cell; wherein the plate device comprises: a central cell section encompassing a plurality of channels across planar dimensions of a cell; an outer port section enclosing a cross-section opening of a fluid port (30, 31, 32, 33) passing through the plate device in a thickness direction; and a transition section forming a flat shaped flow cross-section for distributing or collecting a fluid to be transferred in a planar direction of the plate device in fluid communication between the fluid port (30, 31, 32, 33) and the cell, wherein a plurality of flow features is disposed within the transition section and the transition section is enclosed by a boundary, wherein the plate device having at least one support feature (15, 16) being integrally formed with the boundary and with at least one of outermost arranged flow features out of the plurality of flow features, wherein vias are arranged between a fluid port (30, 31, 32, 33) and the transition section for providing a fluid communication in between; and wherein another kind of the support features and parts of the boundary positioned between the vias integrally form together protrusions of channeling walls extending into the transition section. a central cell section encompassing a plurality of channels across planar dimensions of a cell; an outer port section enclosing a cross-section opening of a fluid port (30, 31, 32, 33) passing through the plate device in a thickness direction; and a transition section forming a flat shaped flow cross-section for distributing or collecting a fluid to be transferred in a planar direction of the plate device in fluid communication between the fluid port (30, 31, 32, 33) and the cell, wherein a plurality of flow features is disposed within the transition section and the transition section is enclosed by a boundary, wherein the plate device having at least one support feature (15, 16) being integrally formed with the boundary and with at least one of outermost arranged flow features out of the plurality of flow features, wherein vias are arranged between a fluid port (30, 31, 32, 33) and the transition section for providing a fluid communication in between; and wherein another kind of the support features and parts of the boundary positioned between the vias integrally form together protrusions of channeling walls extending into the transition section.
An in vitro method of inhibiting outgrowth of a C. difficile spore, comprising contacting a C.difficile spore with a glycopeptide antibiotic in an amount sufficient to inhibit outgrowth of a C. difficile spore, thereby inhibiting outgrowth of a C. difficile spore, wherein said glycopeptide antibiotic is oritavancin, or a pharmaceutically acceptable salt, hydrate, or solvate thereof, or a mixture thereof.
Light source module for a vehicle headlamp, the light source module having at least one laser light source and at least one light element which can be excited by illumination with laser light to emit visible light and which can be irradiated by the laser light source for light conversion, the laser light source and the light element being arranged at a distance from one another on a carrier element, characterized in that at least one light guide element is arranged between the laser light source and the light element, in which light is guided from the laser light source to the light element and is guided into or into the light element. irregularities are provided on the light guide element, which make scattered laser light visible from the outside.
A gas-liquid separation system comprising a splitter configured to separate the inlet stream from a well stream into liquid and gaseous phases, the splitter having an outlet for a liquid phase to a liquid continuous line to an inline degasser configured to drive separation of gas and liquid by centripetal acceleration, where the clean liquid exits through a liquid outlet pipeline and the gas with some liquid are extracted in a reject line and flow into a reject vessel, and the splitter having an outlet for the gaseous phase to a gas continuous line to an inline deliquidizer configured to drive separation of liquid and gas by centripetal acceleration, where the clean gas exits through a gas outlet pipeline and the liquid with some gas are extracted in a reject line and flow into the reject vessel, wherein the reject vessel is configured for separation by gravity.
A method for preparing an osteoinductive composition, the osteoinductive composition comprising a plurality of surface demineralized fibrous bone chips, wherein the method comprises pressing surface demineralized bone chips at pressures from 34.47 MPa (5,000 psi) to 68.95 MPa (10,000 psi) to form surface demineralized fibrous bone chips, wherein the surface demineralized fibrous bone chips retain their chip structure and each comprise a demineralized fibrous surface layer and a mineral core, wherein the mineral core comprises 98%, 99%, or 100% by weight of the mineral core's original mineral content, and the surface demineralized fibrous bone chips have a BET surface area from 10 m 2 /gm to 70 m 2 /gm. the osteoinductive composition comprising a plurality of surface demineralized fibrous bone chips, wherein the method comprises pressing surface demineralized bone chips at pressures from 34.47 MPa (5,000 psi) to 68.95 MPa (10,000 psi) to form surface demineralized fibrous bone chips, wherein the surface demineralized fibrous bone chips retain their chip structure and each comprise a demineralized fibrous surface layer and a mineral core, wherein the mineral core comprises 98%, 99%, or 100% by weight of the mineral core's original mineral content, and the surface demineralized fibrous bone chips have a BET surface area from 10 m 2 /gm to 70 m 2 /gm.
An audio communication system including a headset and arranged for being coupled to a first audio source device and/or to a second audio source device, the system comprising: a microphone of the headset having two electrical outputs; a first electro-acoustic driver of the headset; first and second differential amplifiers; a first electrical conductor for electrically connecting an output of the first differential amplifier with the first audio source device; a second electrical conductor for electrically connecting an input of the driver with the first audio source device; a third electrical conductor for electrically connecting an output of the second differential amplifier with the second audio source device; and a fourth electrical conductor for electrically connecting an input of the driver with the second audio source device, one electrical output from the microphone being electrically connected to a positive input of each of the differential amplifiers, the other electrical output from the microphone being electrically connected to a negative input of each of the differential amplifiers, wherein the first amplifier is contained within a first connector at the end of a first cable, and the second amplifier is contained within a second connector at the end of a second cable. a microphone of the headset having two electrical outputs; a first electro-acoustic driver of the headset; first and second differential amplifiers; a first electrical conductor for electrically connecting an output of the first differential amplifier with the first audio source device; a second electrical conductor for electrically connecting an input of the driver with the first audio source device; a third electrical conductor for electrically connecting an output of the second differential amplifier with the second audio source device; and a fourth electrical conductor for electrically connecting an input of the driver with the second audio source device, one electrical output from the microphone being electrically connected to a positive input of each of the differential amplifiers, the other electrical output from the microphone being electrically connected to a negative input of each of the differential amplifiers, wherein the first amplifier is contained within a first connector at the end of a first cable, and the second amplifier is contained within a second connector at the end of a second cable.
A power transmission device for a work vehicle, the power transmission device comprising: a transmission case configured to store lubricating oil in its internal space; a gear transmission contained in the transmission case and configured to receive motive power from a power source; a differential mechanism contained in the transmission case and configured to receive motive power from the gear transmission and transmit the motive power to a left wheel and a right wheel; and a gear cover covering a lower portion of a ring gear of the differential mechanism below a surface of the stored lubricating oil and including a front cover portion facing and covering a front side face of the lower portion, the front side face being a first side face of opposite side faces of the lower portion which first side face is provided with teeth; characterized in that the gear cover includes a lower cover portion extending from a lower end of the front cover portion under the lower portion to cover the lower portion from below. a transmission case configured to store lubricating oil in its internal space; a gear transmission contained in the transmission case and configured to receive motive power from a power source; a differential mechanism contained in the transmission case and configured to receive motive power from the gear transmission and transmit the motive power to a left wheel and a right wheel; and a gear cover covering a lower portion of a ring gear of the differential mechanism below a surface of the stored lubricating oil and including a front cover portion facing and covering a front side face of the lower portion, the front side face being a first side face of opposite side faces of the lower portion which first side face is provided with teeth; characterized in that the gear cover includes a lower cover portion extending from a lower end of the front cover portion under the lower portion to cover the lower portion from below.
A method for predicting the disease free time interval for a canine or human subject with a lymphoma under consideration for initial or further chemotherapy treatment, the method comprising: detecting a copy number of chromosome regions A1 and C2 in a biological sample obtained from the subject, wherein the sample comprises a number of cells; dividing the copy number by the number of cells in the biological sample to obtain a mean copy number value for A1 and C2; and correlating the mean copy number value with a risk of relapse; wherein the correlating predicts the disease free interval for the subject; and further wherein: in canines, chromosome region A1 comprises nucleotides 116,839,835-117,635,991 of canine chromosome 1 as set forth in Accession No. NC_006583 of the GENBANK® biosequence database and chromosome region C2 comprises nucleotides 41,565,280-42,426,757 of canine chromosome 6 as set forth in Accession No. C_006588 of the GENBANK® biosequence database; and in humans, chromosome region A1 comprises nucleotides 43,452,745-44,221,900 of human chromosome 19 as set forth in Accession No. NC_000019 of the GENBANK® biosequence database and chromosome region C2 comprises nucleotides 1,629,295- 2,350,975 of human chromosome 16 as set forth in Accession No. N_000016 of the GENBANK® biosequence database. detecting a copy number of chromosome regions A1 and C2 in a biological sample obtained from the subject, wherein the sample comprises a number of cells; dividing the copy number by the number of cells in the biological sample to obtain a mean copy number value for A1 and C2; and correlating the mean copy number value with a risk of relapse; wherein the correlating predicts the disease free interval for the subject; and further wherein: in canines, chromosome region A1 comprises nucleotides 116,839,835-117,635,991 of canine chromosome 1 as set forth in Accession No. NC_006583 of the GENBANK® biosequence database and chromosome region C2 comprises nucleotides 41,565,280-42,426,757 of canine chromosome 6 as set forth in Accession No. C_006588 of the GENBANK® biosequence database; and in humans, chromosome region A1 comprises nucleotides 43,452,745-44,221,900 of human chromosome 19 as set forth in Accession No. NC_000019 of the GENBANK® biosequence database and chromosome region C2 comprises nucleotides 1,629,295- 2,350,975 of human chromosome 16 as set forth in Accession No. N_000016 of the GENBANK® biosequence database. in canines, chromosome region A1 comprises nucleotides 116,839,835-117,635,991 of canine chromosome 1 as set forth in Accession No. NC_006583 of the GENBANK® biosequence database and chromosome region C2 comprises nucleotides 41,565,280-42,426,757 of canine chromosome 6 as set forth in Accession No. C_006588 of the GENBANK® biosequence database; and in humans, chromosome region A1 comprises nucleotides 43,452,745-44,221,900 of human chromosome 19 as set forth in Accession No. NC_000019 of the GENBANK® biosequence database and chromosome region C2 comprises nucleotides 1,629,295- 2,350,975 of human chromosome 16 as set forth in Accession No. N_000016 of the GENBANK® biosequence database.
Method of installing rotor blades on an offshore wind turbine, the method comprising the steps of: - arranging a tower of the wind turbine at an offshore installation site, the tower having a nacelle and a hub mounted thereon, - fastening a first end of a tensioner to at least one of the tower, wherein the first end of the tensioner is fastened to the tower at an upper region of the tower adjacent to the nacelle, the nacelle, and the hub at a distance above sea level, - fastening a second end of the tensioner to a holding device (9,15) floating in the sea at a distance from the tower, and - applying a pulling force to the tensioner from the holding device (9,15) at least part of the time while the rotor blades are being mounted to the hub, so that oscillations of the tower due to external forces are dampened during installation of the rotor blades. - arranging a tower of the wind turbine at an offshore installation site, the tower having a nacelle and a hub mounted thereon, - fastening a first end of a tensioner to at least one of the tower, wherein the first end of the tensioner is fastened to the tower at an upper region of the tower adjacent to the nacelle, the nacelle, and the hub at a distance above sea level, - fastening a second end of the tensioner to a holding device (9,15) floating in the sea at a distance from the tower, and - applying a pulling force to the tensioner from the holding device (9,15) at least part of the time while the rotor blades are being mounted to the hub, so that oscillations of the tower due to external forces are dampened during installation of the rotor blades.
A combination of a packaging for wipes and of a roll of tape without central core constituting said wipes and arranged entirely inside of said packaging, said packaging having such measures of height (h) and base (la, lu) so as to allow the containment inside it of a roll of tape without central core placed upright into the packaging with the base of the roll standing on the base of the packaging, the packaging having a superior edge having the length (lu) formed by two strips of material united between them by welding or heating, the packaging having a cover openable/closeable to give access to an opening of the packaging for the exit of the wipes, wherein the height (h) is greater than the measure of width (la) and also greater than the measure of length (lu) and with the Length (lu) greater than the width (la), characterized in that said packaging is realized in a film of polyester coupled with polythene or a film of polyester coupled with polypropylene and the said packaging is formed as a biscuit packaging having said base, two lateral walls connected with the base from one side and connected at the top of the packaging from the other side and forming the said superior edge, one of said two lateral walls comprising said cover with the said opening, a front and a rear wall both connected with the base along the width (la) of the base and connecting at the top of the packaging on the superior edge, the said length (lu) being comprised within a range between 13cm and 16cm, the base of the packaging having a width (la) comprised within a range between 11cm and 14cm and wherein the height (h) of the packaging has a measure comprised between the 20cm and the 23cm, wherein the roll diameter is inferior to the value of the selected width (la) of the packaging and it is also inferior to the value of the selected length (lu) of the said packaging, the roll height being inferior to the selected height value (h) of said packaging and wherein, further, the length of the tape wrapped forming the roll is of about 36m, wherein tear lines are provided in the tape of the roll for separating each wipe from the overall tape constituting the roll, wherein each leaf, forming a wipe, has a measure in length of about 17 cm so that more than 200 tears are obtained.
A method performed by a first Wireless Local Area Network, WLAN, node for performing a transmission to a second WLAN node in a WLAN, and wherein the method comprises: - identifying (303,401) a third WLAN node by reading one or more fields in a physical, PHY, header and/or a Medium Access Control, MAC, header of a first signal transmitted by the third WLAN node to a fourth WLAN node, which first signal is received by the first WLAN node and which one or more fields comprise a unique identifier of the third WLAN node; the method characterized by: - determining (304,402) whether to transmit, to the second WLAN node, a second signal based on the unique identifier of the third WLAN node and based on a received power of the first signal; - determining (305,403), - by means of a link adaptation process specific for the first WLAN node, the second WLAN node, and for the identified third WLAN node, a Modulation and Coding Scheme, MCS, index value, and - transmitting (306,404), to the second WLAN node, the second signal using the determined MCS index. - identifying (303,401) a third WLAN node by reading one or more fields in a physical, PHY, header and/or a Medium Access Control, MAC, header of a first signal transmitted by the third WLAN node to a fourth WLAN node, which first signal is received by the first WLAN node and which one or more fields comprise a unique identifier of the third WLAN node; the method characterized by: - determining (304,402) whether to transmit, to the second WLAN node, a second signal based on the unique identifier of the third WLAN node and based on a received power of the first signal; - determining (305,403), - by means of a link adaptation process specific for the first WLAN node, the second WLAN node, and for the identified third WLAN node, a Modulation and Coding Scheme, MCS, index value, and - transmitting (306,404), to the second WLAN node, the second signal using the determined MCS index. - determining (304,402) whether to transmit, to the second WLAN node, a second signal based on the unique identifier of the third WLAN node and based on a received power of the first signal; - determining (305,403), - by means of a link adaptation process specific for the first WLAN node, the second WLAN node, and for the identified third WLAN node, a Modulation and Coding Scheme, MCS, index value, and - transmitting (306,404), to the second WLAN node, the second signal using the determined MCS index.
A device for application in thermal ablation with high-intensity focused ultra sound medical device on a knee joint of a patient, comprising: a) a means for limiting the movement of the knee joint, wherein the device immobilizes the knee joint; and/or b) a means for compressing both lateral sides of the knee, wherein the device locates the compression means to both lateral sides of the knee; characterised in that the device further comprises: a means for applying a pressure to increase the distance between the skin and periosteum of the knee by at least 10% and/or synovia and periosteum of the knee by at least 40%, wherein the device locates and constrains the distance increment to the region between the skin and periosteum of the knee and/or synovia and periosteum of the knee. a) a means for limiting the movement of the knee joint, wherein the device immobilizes the knee joint; and/or b) a means for compressing both lateral sides of the knee, wherein the device locates the compression means to both lateral sides of the knee; a means for applying a pressure to increase the distance between the skin and periosteum of the knee by at least 10% and/or synovia and periosteum of the knee by at least 40%, wherein the device locates and constrains the distance increment to the region between the skin and periosteum of the knee and/or synovia and periosteum of the knee.