mhurhangee/ep-ind-claims huggingface dataset:
A method of processing computer instructions, comprising: forming multiple instruction matrices, wherein each instruction matrix specifies parallel and dependent instructions; executing the multiple instruction matrices in multiple execution units (201,301,300,302,304) within a fixed number of cycles, wherein each execution unit supports both parallel and serial instruction execution; and storing results from the execution units in multiple register file sections; wherein the multiple execution units are alternately operative in different execution modes to: simultaneously execute multiple instruction matrices forming a Multiple Instructions Multiple Data (MIMD) super instruction matrix, wherein the multiple register file sections are configured to form a single register file serving the super instruction matrix; independently execute instruction matrices in a threaded mode where separate threads execute simultaneously on execution units, wherein the multiple register file sections are configured to form independent register files for serving the separate threads; and simultaneously execute different, non-dependent instruction matrices from a single thread, wherein the multiple register file sections are configured to form a unified register file where data written to any register file section by one of the execution units is accessible to all other execution units. forming multiple instruction matrices, wherein each instruction matrix specifies parallel and dependent instructions; executing the multiple instruction matrices in multiple execution units (201,301,300,302,304) within a fixed number of cycles, wherein each execution unit supports both parallel and serial instruction execution; and storing results from the execution units in multiple register file sections; simultaneously execute multiple instruction matrices forming a Multiple Instructions Multiple Data (MIMD) super instruction matrix, wherein the multiple register file sections are configured to form a single register file serving the super instruction matrix; independently execute instruction matrices in a threaded mode where separate threads execute simultaneously on execution units, wherein the multiple register file sections are configured to form independent register files for serving the separate threads; and simultaneously execute different, non-dependent instruction matrices from a single thread, wherein the multiple register file sections are configured to form a unified register file where data written to any register file section by one of the execution units is accessible to all other execution units.
A colored organic fiber having a content of a carrier agent of 1.8% by mass or less relative to the fiber mass; wherein the organic fiber is a meta-type wholly aromatic polyamide fiber having a content of residual solvent of 1.0% by mass or less.
Heating and/or air conditioning device for a home or other space, including a heat pump thermally coupled to a buried heat exchanger, in which: - the heat exchanger is contained in a buried thermal storage tank, - the thermal storage tank includes an underground pocket containing a permeable material and water, the pocket is open at the top, in the form of a buried cup retaining the permeable material and the water around the heat exchanger, or in a shape of an elongate trench in the soil, characterized in that: - the pocket includes an envelope that is impermeable to water, - the pocket is open at the top, so as to allow the rainwater to assure the retain of an average amount of water, and so as to allow the volume variations of the content of the pocket during freeze up and breakup. - the heat exchanger is contained in a buried thermal storage tank, - the thermal storage tank includes an underground pocket containing a permeable material and water, the pocket is open at the top, in the form of a buried cup retaining the permeable material and the water around the heat exchanger, or in a shape of an elongate trench in the soil, - the pocket includes an envelope that is impermeable to water, - the pocket is open at the top, so as to allow the rainwater to assure the retain of an average amount of water, and so as to allow the volume variations of the content of the pocket during freeze up and breakup.
An implantable medical device comprising a first set of a plurality of first struts extending in a first direction; and a second set of a plurality of second struts extending in a second direction; wherein the first struts are interwoven with the second struts in a plain weave pattern where each first strut extends over and then under each successive second strut to form an annular frame that is radially compressible and expandable; wherein each first strut is pivotally connected to at least one second strut. a first set of a plurality of first struts extending in a first direction; and a second set of a plurality of second struts extending in a second direction; wherein the first struts are interwoven with the second struts in a plain weave pattern where each first strut extends over and then under each successive second strut to form an annular frame that is radially compressible and expandable; wherein each first strut is pivotally connected to at least one second strut.
A slide fastener comprising: a pair of fastener tapes; a pair of fastener element rows respectively sewn to opposing tape side edge portions of the pair of fastener tapes by sewing threads, each of the fastener element rows having a plurality of fastener elements; and a slider configured to engage and disengage the pair of fastener element rows, wherein each of the fastener element rows is a coil-shaped fastener element row made of synthetic resin, wherein each of the fastener elements comprises an engaging head section (31 a) and a first leg section (31 b) and a second leg section (31 c) protruding from the engaging head section and extending parallel to each other, wherein the first leg section comes in contact with the corresponding fastener tape and the second leg section does not come in contact with the corresponding fastener tape, characterised in that the first leg section is colored by forming a coating film on a surface of the first leg section such that the first leg section is colored in a color different from those of the fastener tapes and the second leg section, wherein the color of the first leg section is visible through a gap between the pair of fastener tapes. a pair of fastener tapes; a pair of fastener element rows respectively sewn to opposing tape side edge portions of the pair of fastener tapes by sewing threads, each of the fastener element rows having a plurality of fastener elements; and a slider configured to engage and disengage the pair of fastener element rows, wherein each of the fastener element rows is a coil-shaped fastener element row made of synthetic resin, wherein each of the fastener elements comprises an engaging head section (31 a) and a first leg section (31 b) and a second leg section (31 c) protruding from the engaging head section and extending parallel to each other, wherein the first leg section comes in contact with the corresponding fastener tape and the second leg section does not come in contact with the corresponding fastener tape, characterised in that the first leg section is colored by forming a coating film on a surface of the first leg section such that the first leg section is colored in a color different from those of the fastener tapes and the second leg section, wherein the color of the first leg section is visible through a gap between the pair of fastener tapes.
A microdevice for capturing or isolating target cells from a liquid, wherein the target cells have a mean diameter; wherein: (a) said microdevice comprises a plurality of parallel channels; (b) said channels are fluidically connected to a common input and to a common output and said channels have a length extending from the common input to the common output; (c) a cross-section of each of said plurality of channels has a height and a width taken in a direction perpendicular to the length of the channels; and the width of each of said plurality of channels is at least about the mean diameter of the target cells, and is not greater than about twice the mean diameter of the target cells; and wherein the target cells are selected from circulating tumor cells, pathogenic bacteria, host cells infected with pathogens, fetal cells in maternal blood, stem cells, maternal cells in an infant or adult, erythrocytes, leukocytes, platelets, tumor cells, or cancer cells; (d) the height of each of said plurality of channels is at least about three times the width of each respective channel; (e) at least part of the surface within each of said plurality of channels is covalently linked to one or more capture elements,; wherein said capture elements comprise antibodies or aptamers that selectively bind molecules on the membranes of the target cells; and (f) each of said channels has sinusoidal or quasi-sinusoidal shape. (a) said microdevice comprises a plurality of parallel channels; (b) said channels are fluidically connected to a common input and to a common output and said channels have a length extending from the common input to the common output; (c) a cross-section of each of said plurality of channels has a height and a width taken in a direction perpendicular to the length of the channels; and the width of each of said plurality of channels is at least about the mean diameter of the target cells, and is not greater than about twice the mean diameter of the target cells; and wherein the target cells are selected from circulating tumor cells, pathogenic bacteria, host cells infected with pathogens, fetal cells in maternal blood, stem cells, maternal cells in an infant or adult, erythrocytes, leukocytes, platelets, tumor cells, or cancer cells; (d) the height of each of said plurality of channels is at least about three times the width of each respective channel; (e) at least part of the surface within each of said plurality of channels is covalently linked to one or more capture elements,; wherein said capture elements comprise antibodies or aptamers that selectively bind molecules on the membranes of the target cells; and (f) each of said channels has sinusoidal or quasi-sinusoidal shape.
Injection apparatus comprising a carrier housing, into which an injection device, having at least one injection fluid container that can be pressed, can be inserted, and an actuating apparatus which can be driven along an injection direction in order to activate the injection device in order to apply drive forces onto the injection device, which can be acted on by a mechanical energy storage unit and an electrical transport unit, characterised in that the actuating apparatus, in order to carry out at least one insertion stroke and one injection stroke, is driven solely by the drive force of a mechanical energy storage unit, and the electrical transport unit forms a speed limiter, which, during an injection, takes effect counter to the drive force in order to limit the stroke speed attained by the energy storage unit.
A device for spinning threads, comprising - at least one melt supply means, - at least one nozzle package including at least one spinning nozzle, wherein at least a first housing with at least one first housing wall is arranged around the nozzle package, - at least a second housing arranged around the first housing and having at least one second housing wall, wherein a heating chamber filled with a gaseous heating medium is provided between the first and the second housing (8, 10), wherein the at least one first and the at least one second housing wall (3, 6) delimit the heating chamber, characterized in that the heating chamber is delimited by at least one housing bottom slanted downward from the first housing wall towards the second housing wall so that condensate accumulated on the housing bottom drains off towards the second housing wall. - at least one melt supply means, - at least one nozzle package including at least one spinning nozzle, wherein at least a first housing with at least one first housing wall is arranged around the nozzle package, - at least a second housing arranged around the first housing and having at least one second housing wall, wherein a heating chamber filled with a gaseous heating medium is provided between the first and the second housing (8, 10), wherein the at least one first and the at least one second housing wall (3, 6) delimit the heating chamber,
A drain assembly, comprising a sewer tube, a connecting pole, a connecting seat having a sewer outlet, and a sewer lid to close or open the sewer outlet, wherein the connecting seat is connected to the sewer tube, the connecting pole is inside the sewer tube, the sewer lid is connected to an upper end of the connecting pole, the sewer tube comprises a fixing seat on a side wall, the fixing seat comprises a driving component to drive the connecting pole, the driving component comprises a swing component, a swing component mounting seat, a connecting steel wire and a handle, the swing component is hinged to the swing component mounting seat to enable the swing component to swing with a hinge shaft as a center, the handle is connected to an end of the connecting steel wire, the other end of the connecting steel wire is connected to an end of the swing component, the other end of the swing component is used to drive the connecting pole to move along the sewer tube so that the sewer lid closes or opens the sewer outlet, and a friction force inducing component is arranged between the swing component and the swing component mounting seat to induce friction on the swing component so that the swing component can stay in a determined position during swinging, the swing component comprises a spherical ball, the swing component mounting cavity comprises a round cavity adapted to the spherical ball, and the friction force induced by contact of an inner surface of the round cavity with an outer surface of the spherical ball causes the swing component to stay in the determined position during swinging, characterized in that the swing component mounting seat comprises a first seat body and a second seat body, the first seat body is located on a side of the swing component which is near the sewer tube, the second seat body is located on a side of the swing component which is away from the sewer tube, the first seat body and the second seat body comprise a swing component mounting cavity, the swing component is arranged in the swing component mounting cavity.
A method to form parametric models, comprising the steps of: a. computing a glottal pulse distance metric between a number of glottal pulses; b. clustering a glottal pulse database comprising the glottal pulses into a number of clusters to determine centroid glottal pulses; c. forming a corresponding vector database by associating a vector with each glottal pulse in the glottal pulse database, wherein the vector associated with each glottal pulse is defined based on the glottal pulse, the centroid glottal pulses and the distance metric; d. determining Eigenvectors of the vector database; and e. forming parametric models by associating a glottal pulse from the glottal pulse database to each determined Eigenvector. a. computing a glottal pulse distance metric between a number of glottal pulses; b. clustering a glottal pulse database comprising the glottal pulses into a number of clusters to determine centroid glottal pulses; c. forming a corresponding vector database by associating a vector with each glottal pulse in the glottal pulse database, wherein the vector associated with each glottal pulse is defined based on the glottal pulse, the centroid glottal pulses and the distance metric; d. determining Eigenvectors of the vector database; and e. forming parametric models by associating a glottal pulse from the glottal pulse database to each determined Eigenvector.
A system for shear testing the bond between a semi-conductor die and a substrate, said system comprising a shear tool housing a shaft, a square or rectangular shear block rotatable on the shear tool so that a shear face of said block can self align into maximum contact with a die, characterized in that: said block has a bearing in it that runs on the end of the shear tool shaft, and said shear tool has holes for porting vacuum for holding the shear block on the end of the shear tool. rotatable on the shear tool so that a shear face of said block can self align into maximum contact with a die,
Differential pressure sensor for a leak detection device comprising: - at least two bodies (3a, 3b) fastened to each other in which a cavity is created; - a membrane that is arranged between the two bodies (3a, 3b) and separates said cavity so as to define a test chamber (7a, 7b) in each one of said bodies (3a, 3b); - at least one electrode (11a, 11b) arranged in each one of the test chambers (7a, 7b) and facing said membrane so as to form therewith a capacitor; characterised in that said sensor comprises at least two seals (13a 1, 13a 2, 13b 1, 13b 2) arranged between each of said bodies (3a, 3b) and the membrane to ensure the tightness of each of said test chambers (7a, 7b); and in that each of the bodies (3a, 3b) comprises at least one fluid duct (12a, 12b) opening between said seals (13a 1, 13a 2, 13b 1, 13b 2), each of said ducts (12a, 12b) allowing to vary the pressure prevailing between said seals and to balance it with the pressure prevailing in the adjoining test chamber (7a, 7b). - at least two bodies (3a, 3b) fastened to each other in which a cavity is created; - a membrane that is arranged between the two bodies (3a, 3b) and separates said cavity so as to define a test chamber (7a, 7b) in each one of said bodies (3a, 3b); - at least one electrode (11a, 11b) arranged in each one of the test chambers (7a, 7b) and facing said membrane so as to form therewith a capacitor; characterised in that said sensor comprises at least two seals (13a 1, 13a 2, 13b 1, 13b 2) arranged between each of said bodies (3a, 3b) and the membrane to ensure the tightness of each of said test chambers (7a, 7b); and in that each of the bodies (3a, 3b) comprises at least one fluid duct (12a, 12b) opening between said seals (13a 1, 13a 2, 13b 1, 13b 2), each of said ducts (12a, 12b) allowing to vary the pressure prevailing between said seals and to balance it with the pressure prevailing in the adjoining test chamber (7a, 7b).
A communication method related to a change of an application server performed by a Session Management Function, SMF, node (42, 420), the method comprising: receiving capability information that a User Equipment, UE, is able to process information related to a changed application server from the UE; transmitting a notification message informing that a user plane, UP, path is changed, to an Application Function, AF, node, wherein the AF node manages one or more application servers, wherein the notification message includes information for requesting the IP address of the changed application server when the application server is changed, based on the received capability information; receiving a response message from the AF node in response to the notification message; wherein the response message includes information on the IP address of the changed application server when the AF node succeeded in changing the application server; and transmitting a message including information on the IP address of the changed application server to the UE through an Access and Mobility Management Function, AMF, node (41, 410). receiving capability information that a User Equipment, UE, is able to process information related to a changed application server from the UE; transmitting a notification message informing that a user plane, UP, path is changed, to an Application Function, AF, node, wherein the AF node manages one or more application servers, wherein the notification message includes information for requesting the IP address of the changed application server when the application server is changed, based on the received capability information; receiving a response message from the AF node in response to the notification message; wherein the response message includes information on the IP address of the changed application server when the AF node succeeded in changing the application server; and transmitting a message including information on the IP address of the changed application server to the UE through an Access and Mobility Management Function, AMF, node (41, 410).
A formulation comprising: occidiofungin, one or more cyclodextrins, and an aqueous solvent, for use in the treatment of a proliferative disorder, wherein either (a) said formulation comprises from 20 μg/mL to about 1 g/mL of the occidiofungin; or (b) said formulation comprises between 0.5% to about 10% weight/volume (w/v) of one or more cyclodextrins. occidiofungin, one or more cyclodextrins, and an aqueous solvent, (a) said formulation comprises from 20 μg/mL to about 1 g/mL of the occidiofungin; or (b) said formulation comprises between 0.5% to about 10% weight/volume (w/v) of one or more cyclodextrins.
Method for corner contouring of flat glass substrates in a continuous feed-through process by means of a contouring tool, comprising the following steps: - synchronizing the movement of a first carrier unit to the continuous feed-through movement of the flat glass substrate, - mechanically, electrically, acoustically or optically coupling a second carrier unit, which is mounted movably on the first carrier unit, to the flat glass substrate, - contouring a corner of the flat glass substrate, wherein, while overlapping the continuous feed-through movement, the contouring tool executes a movement which is controlled relative to the second carrier unit. - synchronizing the movement of a first carrier unit to the continuous feed-through movement of the flat glass substrate, - mechanically, electrically, acoustically or optically coupling a second carrier unit, which is mounted movably on the first carrier unit, to the flat glass substrate, - contouring a corner of the flat glass substrate, wherein, while overlapping the continuous feed-through movement, the contouring tool executes a movement which is controlled relative to the second carrier unit.
A composition for use in the treatment of an infection caused by a methicillin-resistant Staphylococcus aureus (MRSA) bacterium, wherein the resistance is due to a penicillin-binding protein 2a (PBP2a)-driven mechanism, the composition comprising: i) at least one carbapenem or other suitable β-lactam capable of binding the allosteric site of PBP2a; ii) at least one β-lactamase inhibitor; and iii) at least one β-lactam that binds the open configuration of the active site of PBP2a; wherein the the composition is selected from the group consisting of a) meropenem/piperacillin/tazobactam (ME/PI/TZ); b) cefepime/piperacillin/tazobactam (CP/PI/TZ); c) aztreonam/piperacillin/tazobactam (AZ/PI/TZ); d) meropenem/amoxicillin/tazobactam (ME/AX/TZ); e) meropenem/amoxicillin/clavulanate (ME/AX/CV); and f) imipenem/piperacillin/clavulanate (IM/PI/CV). i) at least one carbapenem or other suitable β-lactam capable of binding the allosteric site of PBP2a; ii) at least one β-lactamase inhibitor; and iii) at least one β-lactam that binds the open configuration of the active site of PBP2a; wherein the the composition is selected from the group consisting of a) meropenem/piperacillin/tazobactam (ME/PI/TZ); b) cefepime/piperacillin/tazobactam (CP/PI/TZ); c) aztreonam/piperacillin/tazobactam (AZ/PI/TZ); d) meropenem/amoxicillin/tazobactam (ME/AX/TZ); e) meropenem/amoxicillin/clavulanate (ME/AX/CV); and f) imipenem/piperacillin/clavulanate (IM/PI/CV). a) meropenem/piperacillin/tazobactam (ME/PI/TZ); b) cefepime/piperacillin/tazobactam (CP/PI/TZ); c) aztreonam/piperacillin/tazobactam (AZ/PI/TZ); d) meropenem/amoxicillin/tazobactam (ME/AX/TZ); e) meropenem/amoxicillin/clavulanate (ME/AX/CV); and f) imipenem/piperacillin/clavulanate (IM/PI/CV).