mhurhangee/ep-ind-claims huggingface dataset:
A filtration apparatus for filtering and separating solids from liquids, comprising at least one liquid-permeable, continuously or intermittently drivable filter belt, an intake for charging the liquid/solid mixture to be filtered onto the filter belt in a charging zone as well as a belt cleaner for removing the solids deposited at the filter belt from a belt section conveyed out of the charging zone in an expulsion zone, characterized in that the drivable filter belt is combined with the belt cleaner to form a drawer-like assembly which is made separately from the intake and is movable with respect to the intake, wherein the intake is arranged in a filter housing into which a section of the filter belt can be moved by moving the named assembly in the manner of a drawer.
A method of transmitting data in a multi input, multi output, MIMO, system, the method comprising: receiving antenna selection information from a receiving side; selecting an antenna from a plurality of transmission antennas as a primary antenna based on the antenna having a smallest index from the plurality of transmission antennas, wherein the transmission antennas are identified by the antenna selection information; selecting at least one secondary antenna from the plurality of antennas, wherein the at least one secondary antenna is different to the primary antenna; transmitting at least one preamble via the primary antenna, wherein the preamble includes information on a data packet; and transmitting only the data via the at least one secondary antenna, wherein the data does not include the preamble. receiving antenna selection information from a receiving side; selecting an antenna from a plurality of transmission antennas as a primary antenna based on the antenna having a smallest index from the plurality of transmission antennas, wherein the transmission antennas are identified by the antenna selection information; selecting at least one secondary antenna from the plurality of antennas, wherein the at least one secondary antenna is different to the primary antenna; transmitting at least one preamble via the primary antenna, wherein the preamble includes information on a data packet; and transmitting only the data via the at least one secondary antenna, wherein the data does not include the preamble.
Abrasive having a multicellular base body and abrasive particles applied to the surface of the base body, wherein the abrasive particles are attached to the surface by means of a binder, characterized in that the multicellular base body has the form of a foamed glass body.
Portable device for analyzing the salt content in food, comprising: a container with a mixer-grinder propeller, a detachable electrode, motor means for driving said propeller, a weight sensor of said container, an electronic data processor (5, 14), and a lid for said container; wherein said lid comprises a water injector and a calibration solution injector, wherein said electronic data processor is configured to: detect the introduction of a food sample into said container by the weight gain measured by the weight sensor; drive the water injector to introduce water into the container up to a predetermined volume of water and drive said motor means to grind the contents of the container by said propeller; drive said motor means to stir the contents of the container by said propeller and to measure the salt concentration indicated by the electrode. a container with a mixer-grinder propeller, a detachable electrode, motor means for driving said propeller, a weight sensor of said container, an electronic data processor (5, 14), and a lid for said container; wherein said lid comprises a water injector and a calibration solution injector, wherein said electronic data processor is configured to: detect the introduction of a food sample into said container by the weight gain measured by the weight sensor; drive the water injector to introduce water into the container up to a predetermined volume of water and drive said motor means to grind the contents of the container by said propeller; drive said motor means to stir the contents of the container by said propeller and to measure the salt concentration indicated by the electrode. detect the introduction of a food sample into said container by the weight gain measured by the weight sensor; drive the water injector to introduce water into the container up to a predetermined volume of water and drive said motor means to grind the contents of the container by said propeller; drive said motor means to stir the contents of the container by said propeller and to measure the salt concentration indicated by the electrode.
A method for configuring a Time Division Duplex TDD Uplink/Downlink, UL/DL allocation of a user equipment, UE in a Long Term Evolution LTE network, comprising: receiving a TDD configuration change indicator, from an enhanced NodeB in the LTE network, on a physical channel, identifying a TDD configuration change for the UE; and automatically updating the TDD UL/DL allocation of the UE in accordance with the TDD configuration change identified by the TDD configuration change indicator; wherein the physical channel comprises a Physical Downlink Control Channel, PDCCH; and wherein the method further comprises: detecting a downlink control indicator, DCI, message received on the PDCCH, the DCI message including one or more bits associated with a cyclic redundancy check, CRC, the CRC bits of the DCI message scrambled by a TDD-Radio Network Temporary Identifier, TDD-RNTI, that contains TDD configuration indicator; descrambling the scrambled CRC based, at least in part, on a TDD-Radio Network Temporary Identifier, TDD-RNTI, to identify the CRC bits and an associated payload; and identifying a TDD configuration indicator in the associated payload, wherein the TDD UL/DL allocation is updated in accordance with the TDD configuration indicator. receiving a TDD configuration change indicator, from an enhanced NodeB in the LTE network, on a physical channel, identifying a TDD configuration change for the UE; and automatically updating the TDD UL/DL allocation of the UE in accordance with the TDD configuration change identified by the TDD configuration change indicator; wherein the physical channel comprises a Physical Downlink Control Channel, PDCCH; and wherein the method further comprises: detecting a downlink control indicator, DCI, message received on the PDCCH, the DCI message including one or more bits associated with a cyclic redundancy check, CRC, the CRC bits of the DCI message scrambled by a TDD-Radio Network Temporary Identifier, TDD-RNTI, that contains TDD configuration indicator; descrambling the scrambled CRC based, at least in part, on a TDD-Radio Network Temporary Identifier, TDD-RNTI, to identify the CRC bits and an associated payload; and identifying a TDD configuration indicator in the associated payload, wherein the TDD UL/DL allocation is updated in accordance with the TDD configuration indicator. detecting a downlink control indicator, DCI, message received on the PDCCH, the DCI message including one or more bits associated with a cyclic redundancy check, CRC, the CRC bits of the DCI message scrambled by a TDD-Radio Network Temporary Identifier, TDD-RNTI, that contains TDD configuration indicator; descrambling the scrambled CRC based, at least in part, on a TDD-Radio Network Temporary Identifier, TDD-RNTI, to identify the CRC bits and an associated payload; and identifying a TDD configuration indicator in the associated payload, wherein the TDD UL/DL allocation is updated in accordance with the TDD configuration indicator.
A stator for an electric motor, comprising: a stator core including an annular yoke and a plurality of tooth portions surrounded by the yoke, the stator core comprising slots constituted by adjacent tooth portions and the annular yoke; a plurality of winding frames each covering a respective tooth portion, and each winding frame being formed of an insulating material; a plurality of windings each being concentratedly wound around a respective winding frame; and a plurality of wedges each being disposed between the winding and the yoke in a respective slot, and each wedge being a plate member formed of an insulating material, characterized in that each winding frame is provided with a guide portion to guide insertion of the wedge between the winding and the yoke, and each guide portion protrudes from the respective winding frame toward the yoke, each wedge is inserted between a pair of the guide portions located at an interval corresponding to a width of the wedge. a stator core including an annular yoke and a plurality of tooth portions surrounded by the yoke, the stator core comprising slots constituted by adjacent tooth portions and the annular yoke; a plurality of winding frames each covering a respective tooth portion, and each winding frame being formed of an insulating material; a plurality of windings each being concentratedly wound around a respective winding frame; and a plurality of wedges each being disposed between the winding and the yoke in a respective slot, and each wedge being a plate member formed of an insulating material, characterized in that each winding frame is provided with a guide portion to guide insertion of the wedge between the winding and the yoke, and each guide portion protrudes from the respective winding frame toward the yoke, each wedge is inserted between a pair of the guide portions located at an interval corresponding to a width of the wedge.
A hydraulic valve comprising: a valve body having a longitudinal bore within which is formed a first annular recess that has a first circumferential surface through which a first fluid port opens; a valve element moveably received within the longitudinal bore to control flow of fluid through the first fluid port; and, a filter band having a plurality of apertures there through; the filter band abutting the first circumferential surface; characterized in that the hydraulic valve further comprises a helical spring with spaced apart convolutions that engage the filter band to thereby maintain the filter band abutting the first circumferential surface. a valve body having a longitudinal bore within which is formed a first annular recess that has a first circumferential surface through which a first fluid port opens; a valve element moveably received within the longitudinal bore to control flow of fluid through the first fluid port; and, a filter band having a plurality of apertures there through; the filter band abutting the first circumferential surface; characterized in that the hydraulic valve further comprises a helical spring with spaced apart convolutions that engage the filter band to thereby maintain the filter band abutting the first circumferential surface.
A receiver circuit connected to a driver circuit by a pair of differential signal lines, the receiver circuit comprising: a differential receiver configured to receive a first differential signal transmitted by the driver circuit on the differential signal lines, the first differential signal being coded with a predetermined transmission coding scheme; a detection circuit configured to detect that electric potentials of the differential signal lines have changed to a first condition, after being maintained at a predetermined electric potential, when the driver circuit transmits a second fixed differential signal, different from the first differential signal, on the same differential signal lines, by maintaining the differential signal lines respectively at different electric potentials for a period of time longer than a maximum period of time during which the differential signal lines have respectively fixed electric potentials according to the predetermined transmission coding scheme; and a receiver control unit configured to switch the differential receiver from a disable state to an enable state when the detection circuit detects the change to the first condition. a differential receiver configured to receive a first differential signal transmitted by the driver circuit on the differential signal lines, the first differential signal being coded with a predetermined transmission coding scheme; a detection circuit configured to detect that electric potentials of the differential signal lines have changed to a first condition, after being maintained at a predetermined electric potential, when the driver circuit transmits a second fixed differential signal, different from the first differential signal, on the same differential signal lines, by maintaining the differential signal lines respectively at different electric potentials for a period of time longer than a maximum period of time during which the differential signal lines have respectively fixed electric potentials according to the predetermined transmission coding scheme; and a receiver control unit configured to switch the differential receiver from a disable state to an enable state when the detection circuit detects the change to the first condition.
A needle assembly comprising: a housing defining a housing interior, said housing comprising a patient puncture tip extending from a first end of the housing and a non-patient puncture tip extending from a second end of the housing, the non-patient puncture tip and the patient puncture tip being in fluid communication with each other, wherein the sole communication path between the housing interior and an external environment is via the patient puncture tip; and a porous vent positioned within the housing interior to separate the housing interior into a first chamber and a second chamber with the patient puncture tip and the non-patient puncture tip both in fluid communication with the first chamber of the housing, the porous vent including pores the assembly characterised in that the pores are adapted for passage of blood therethrough form the first chamber to the second chamber, wherein the first chamber, the second chamber, and the porous vent are configured such that upon insertion of the patient puncture tip into a patient, blood flows into the first chamber without sealing the porous vent, and upon removal of at least a portion of air from the secondary chamber, blood is drawn from said first chamber, thereby establishing a negative pressure within said second chamber with respect to the external environment of the needle assembly. a housing defining a housing interior, said housing comprising a patient puncture tip extending from a first end of the housing and a non-patient puncture tip extending from a second end of the housing, the non-patient puncture tip and the patient puncture tip being in fluid communication with each other, wherein the sole communication path between the housing interior and an external environment is via the patient puncture tip; and a porous vent positioned within the housing interior to separate the housing interior into a first chamber and a second chamber with the patient puncture tip and the non-patient puncture tip both in fluid communication with the first chamber of the housing, the porous vent including pores the assembly characterised in that the pores are adapted for passage of blood therethrough form the first chamber to the second chamber, wherein the first chamber, the second chamber, and the porous vent are configured such that upon insertion of the patient puncture tip into a patient, blood flows into the first chamber without sealing the porous vent, and upon removal of at least a portion of air from the secondary chamber, blood is drawn from said first chamber, thereby establishing a negative pressure within said second chamber with respect to the external environment of the needle assembly.
A method for monitoring a media device, the method comprising: collecting, using a registrar installed at a media device, demographic information from a user; transmitting the demographic information to a central facility from the registrar; accessing, at the registrar, a panelist identifier generated based on the transmitted demographic information; and storing, by executing an instruction with a processor executing the registrar, the panelist identifier identifying the user in a shared memory of the media device, the panelist identifier accessible to a first instrumented application and a second instrumented application separate from the registrar, the panelist identifier to be retrieved by the first instrumented application, the first instrumented application to collect monitoring information if the panelist identifier is in the shared memory and to disable collection of the monitoring information if the panelist identifier is not in the shared memory. collecting, using a registrar installed at a media device, demographic information from a user; transmitting the demographic information to a central facility from the registrar; accessing, at the registrar, a panelist identifier generated based on the transmitted demographic information; and storing, by executing an instruction with a processor executing the registrar, the panelist identifier identifying the user in a shared memory of the media device, the panelist identifier accessible to a first instrumented application and a second instrumented application separate from the registrar, the panelist identifier to be retrieved by the first instrumented application, the first instrumented application to collect monitoring information if the panelist identifier is in the shared memory and to disable collection of the monitoring information if the panelist identifier is not in the shared memory.
An osteo-implant (100, 500, 600), having a threaded segment (110, 510, 610) and an apical end (120, 520, 620), wherein the threaded segment (110, 510, 610) is provided with a thread and multiple bone healing recesses (114, 514, 614), the bone healing recesses (114, 514, 614) are located at a thread root of the thread, the bone healing recesses (114, 514, 614) are recesses inwardly depressed from a surface of the threaded segment (110, 510, 610), the threaded segment (110, 510, 610) has a central axis, and in the same segment of the threaded segment (110, 510, 610), an area of axial cross-sections, which are parallel to and passes through the central axis, of the bone healing recesses (114, 514, 614) get smaller toward the apical end (120, 220, 320, 420, 520, 620), wherein contours of multiple axial cross-sections, which are parallel to and pass through the central axis, of the bone healing recesses (114, 514, 614) each have a vertex angle (A12, A22, A32) formed as an opening angle between a first side and a second side of the bone healing recesses (114, 514, 614), the first side is closer to a direction of the central axis away from the apical end (120, 520, 620) than the second side, and the vertext angles increase toward the apical end (1, 520, 620), the osteo-implant (100, 500, 600) being wherein angles (A14, A24, A34) included between the first side of the bone healing recesses (114, 514, 614)and the central axis decrease in a direction from being away from the apical end (120, 520, 620) towards the being close to the apical end (120, 520, 620) and wherein angles (A16, A26, A36) included between the second side of the bone healing recesses (114, 514, 614) and the central axis decrease in a direction from being away from the apical end (120, 520, 620) towards being close to the apical end (120, 520, 620).
A chemically-modified FVIIa molecule comprising: (a) a FVIIa molecule selected from the group consisting of plasmatic FVIIa and recombinant FVIIa (rFVIIa); and (b) at least one physiologically acceptable carbohydrate moiety comprising 1 to 4 sialic acid moieties or polysialic acid bound to one or more oxidized carbohydrate moieties on said FVIIa; and wherein the in vivo half-life of said chemically-modified FVIIa molecule is prolonged in the blood of a mammal as compared to the in vivo half-life of a FVIIa molecule that is not chemically modified. (a) a FVIIa molecule selected from the group consisting of plasmatic FVIIa and recombinant FVIIa (rFVIIa); and (b) at least one physiologically acceptable carbohydrate moiety comprising 1 to 4 sialic acid moieties or polysialic acid bound to one or more oxidized carbohydrate moieties on said FVIIa; and
A method for automatically and successively laying elastomeric elements using a facility for manufacturing tire blanks, comprising a drum for manufacturing tire blanks, at least one collaborative robotized arm equipped with at least one effector, a stage of laying an elastomeric element, comprising a predetermined sequence of steps, the sequence comprising the steps of grasping and drawing the elastomeric element towards the drum using said arm, characterized in that the automatic and successive laying of elastomeric elements includes instructions which can be executed by the processor of a control unit in order to implement: - a stage of automatic performance of a step according to said sequence, - a stage of interruption of said sequence; - a stage of manual performance of the interrupted step or the next step according to said sequence. a drum for manufacturing tire blanks, at least one collaborative robotized arm equipped with at least one effector, a stage of laying an elastomeric element, comprising a predetermined sequence of steps, the sequence comprising the steps of grasping and drawing the elastomeric element towards the drum using said arm, characterized in that the automatic and successive laying of elastomeric elements includes instructions which can be executed by the processor of a control unit in order to implement: - a stage of automatic performance of a step according to said sequence, - a stage of interruption of said sequence; - a stage of manual performance of the interrupted step or the next step according to said sequence. - a stage of automatic performance of a step according to said sequence, - a stage of interruption of said sequence; - a stage of manual performance of the interrupted step or the next step according to said sequence.