mhurhangee/ep-ind-claims huggingface dataset:
A medical composition, comprising: a carrier in a particle form, the carrier having (i) a support in a particle form made from a bioabsorbable polymer and (ii) a surface layer made from hydroxyapatite and provided on the support; and cells provided on a surface of the carrier, wherein the cells are at least one kind selected from the group consisting of: myelomonocytic cells, peripheral-blood mononuclear cells, multipotent stem cells, hematopoietic stem cells, vascular endothelium precursor cells, iPS cells, ES cells, platelet, and mesenchymal stem cells. a carrier in a particle form, the carrier having (i) a support in a particle form made from a bioabsorbable polymer and (ii) a surface layer made from hydroxyapatite and provided on the support; and cells provided on a surface of the carrier, wherein the cells are at least one kind selected from the group consisting of: myelomonocytic cells, peripheral-blood mononuclear cells, multipotent stem cells, hematopoietic stem cells, vascular endothelium precursor cells, iPS cells, ES cells, platelet, and mesenchymal stem cells.
An electronic device, comprising: a display module, a middle frame, a sound-emitting assembly, a first circuit board, a first structural member, and a back shell, wherein the middle frame is provided with an accommodating groove, the display module is disposed in the accommodating groove, the sound-emitting assembly, the first circuit board, the first structural member, and the back shell are disposed on a side, away from the display module, of the middle frame, and the sound-emitting assembly, the first circuit board, and the first structural member are located in an installation cavity formed by the back shell and the middle frame; and the sound-emitting assembly comprises a housing and a sound-emitting component, the housing is provided with a first cavity, the sound-emitting component is located in the first cavity and divides the first cavity into a front cavity and a rear cavity, and the housing is further provided with a first sound guide hole and a second sound guide hole, the first sound guide hole communicates with the front cavity, and the second sound guide hole communicates with the rear cavity; characterized in that the first structural member and the first circuit board form first space by enclosure, either of the first structural member or the first circuit board is provided with a third sound guide hole, and the rear cavity communicates with the first space through the second sound guide hole and the third sound guide hole, wherein there is a first gap between the first structural member and the back shell, and a second gap between the housing and the back shell. the middle frame is provided with an accommodating groove, the display module is disposed in the accommodating groove, the sound-emitting assembly, the first circuit board, the first structural member, and the back shell are disposed on a side, away from the display module, of the middle frame, and the sound-emitting assembly, the first circuit board, and the first structural member are located in an installation cavity formed by the back shell and the middle frame; and the sound-emitting assembly comprises a housing and a sound-emitting component, the housing is provided with a first cavity, the sound-emitting component is located in the first cavity and divides the first cavity into a front cavity and a rear cavity, and the housing is further provided with a first sound guide hole and a second sound guide hole, the first sound guide hole communicates with the front cavity, and the second sound guide hole communicates with the rear cavity; characterized in that the first structural member and the first circuit board form first space by enclosure, either of the first structural member or the first circuit board is provided with a third sound guide hole, and the rear cavity communicates with the first space through the second sound guide hole and the third sound guide hole, wherein there is a first gap between the first structural member and the back shell, and a second gap between the housing and the back shell.
A real-time, automated, bird deterrent system comprising: a surveillance subsystem consisting of at least one surveillance sensor apparatus (3a, 3b) adapted for detecting birds and issuing a threat alert when detected birds pose a threat to or are subject to a threat from a protected area; and a deterrent subsystem consisting of at least one deterrent apparatus (5, 7) adapted for harassing detected birds in response to said threat, characterized in that the deterrent subsystem includes a first and second subset of deterrent apparatuses (5, 7) arranged in intrusion zones (4, 6) and adapted for harassing detected birds in response to said threat, further characterized in that a deterrent activation processor is operatively connected to said surveillance subsystem for receiving said threat alert from said surveillance subsystem, said deterrent activation processor being operatively connected to said deterrent subsystem for selecting and activating a subset of said deterrent apparatuses (5, 7) of said deterrent subsystem in response to said threat alert, and further characterized in that an information subsystem is operatively connected to said surveillance subsystem and said deterrent activation processor for collecting sufficient information on bird trajectories or tracks, threat alerts, and deterrent activations in order to enable at least one activity taken from the group consisting of (i) measuring system effectiveness and avian habituation; (ii) altering system configuration to reduce habituation; (iii) interfacing with system operators; and (iv) supporting a variety of data analytics. a surveillance subsystem consisting of at least one surveillance sensor apparatus (3a, 3b) adapted for detecting birds and issuing a threat alert when detected birds pose a threat to or are subject to a threat from a protected area; and a deterrent subsystem consisting of at least one deterrent apparatus (5, 7) adapted for harassing detected birds in response to said threat, characterized in that the deterrent subsystem includes a first and second subset of deterrent apparatuses (5, 7) arranged in intrusion zones (4, 6) and adapted for harassing detected birds in response to said threat, further characterized in that a deterrent activation processor is operatively connected to said surveillance subsystem for receiving said threat alert from said surveillance subsystem, said deterrent activation processor being operatively connected to said deterrent subsystem for selecting and activating a subset of said deterrent apparatuses (5, 7) of said deterrent subsystem in response to said threat alert, and further characterized in that an information subsystem is operatively connected to said surveillance subsystem and said deterrent activation processor for collecting sufficient information on bird trajectories or tracks, threat alerts, and deterrent activations in order to enable at least one activity taken from the group consisting of (i) measuring system effectiveness and avian habituation; (ii) altering system configuration to reduce habituation; (iii) interfacing with system operators; and (iv) supporting a variety of data analytics.
A retaining wall constructing block provided with a coupling protrusion and a coupling groove on a side surface, wherein a first protrusion and a second protrusion are formed to be inclined with respect to a front surface as a engaging structure in one side portion of a retaining wall constructing first block unit, a coupling groove is formed therebetween by the first and second protrusions (1, 2), a first protrusion and a second protrusion of a point-symmetrical shape and a coupling groove formed therebetween are formed to be vertically engaged with the first and second protrusions (1,2) and the coupling groove of the one side portion to construct the retaining wall, the retaining wall constructing block being characterized in that on the upper surface of the first block unit, a protrusion is formed in a horizontal direction, a concave groove is formed on a bottom surface corresponding thereto, the protrusion and the concave groove of the first block units vertically adjacent to each other, and a retaining wall reinforcing geo-grid installed between the upper and lower first block units are fixed by engagement of the concave grooves of the bottom surface of the adjacent block units of the protrusion.
Method for producing a compound semiconductor, which comprises the following steps: - Producing at least one precursor layer stack, consisting of a first precursor layer (5.1), a second precursor layer, and a third precursor layer (5.2), wherein, in a first stage, the first precursor layer (5.1) is produced by depositing the metals copper, indium, and gallium onto a body, and, in a second stage, the second precursor layer is produced by depositing at least one chalcogen, selected from sulfur and selenium, onto the first precursor layer (5.1), and, in a third stage, the third precursor layer (5.2) is produced by depositing the metals copper, indium, and gallium onto the second precursor layer; - Heat treating the at least one precursor layer stack in a process chamber such that the metals of the first precursor layer (5.1), the at least one chalcogen of the second precursor layer, and the metals of the third precursor layer (5.2) are reactively converted to form the compound semiconductor. - Producing at least one precursor layer stack, consisting of a first precursor layer (5.1), a second precursor layer, and a third precursor layer (5.2), wherein, in a first stage, the first precursor layer (5.1) is produced by depositing the metals copper, indium, and gallium onto a body, and, in a second stage, the second precursor layer is produced by depositing at least one chalcogen, selected from sulfur and selenium, onto the first precursor layer (5.1), and, in a third stage, the third precursor layer (5.2) is produced by depositing the metals copper, indium, and gallium onto the second precursor layer; - Heat treating the at least one precursor layer stack in a process chamber such that the metals of the first precursor layer (5.1), the at least one chalcogen of the second precursor layer, and the metals of the third precursor layer (5.2) are reactively converted to form the compound semiconductor.
A gear head for selectively driving and feeding a spindle of a positive feed tool, the gear head comprising: a drive assembly configured to selectively drive the spindle rotationally; and a feed assembly configured to selectively feed the spindle axially, wherein the feed assembly comprises a feed rate oscillator comprising a spindle feed gear operably coupled to a differential feed gear, the spindle feed gear being operably coupled to rotate the spindle to selectively axially feed the spindle, the differential feed gear being selectively operably coupled to an input shaft turned by the motor, and wherein at least one of the spindle feed gear or the differential feed gear has a variable pitch diameter, characterised in that the spindle feed gear includes an oscillating gear tooth profile to provide the variable pitch diameter, wherein the differential feed gear comprises a constant tooth profile in which a region having a first tooth density extends around the entire periphery of the differential gear and wherein the spindle feed gear is provided with the oscillating tooth profile by virtue of the fact that a first region has a higher tooth density than a second region, which has a higher tooth density than a third region and wherein the first, second and third regions (412, 414, 416) alternate around the periphery of the spindle feed gear. a drive assembly configured to selectively drive the spindle rotationally; and a feed assembly configured to selectively feed the spindle axially, wherein the feed assembly comprises a feed rate oscillator comprising a spindle feed gear operably coupled to a differential feed gear, the spindle feed gear being operably coupled to rotate the spindle to selectively axially feed the spindle, the differential feed gear being selectively operably coupled to an input shaft turned by the motor, and wherein at least one of the spindle feed gear or the differential feed gear has a variable pitch diameter, characterised in that the spindle feed gear includes an oscillating gear tooth profile to provide the variable pitch diameter, wherein the differential feed gear comprises a constant tooth profile in which a region having a first tooth density extends around the entire periphery of the differential gear and wherein the spindle feed gear is provided with the oscillating tooth profile by virtue of the fact that a first region has a higher tooth density than a second region, which has a higher tooth density than a third region and wherein the first, second and third regions (412, 414, 416) alternate around the periphery of the spindle feed gear.
A bioreactor for the cultivation of mammalian cells, which is a biocompatible tank or vessel having a volume of at least 500 liters and at least one top impeller and at least one bottom impeller, wherein the at least one top impeller has a power number (N p) between 0.1 and 0.9, wherein the at least one top impeller has a flow number (N q) between 0.4 and 0.9, wherein the at least one bottom impeller has a power number (N p) between 0.5 and 0.9, wherein an impeller spacing (D s) between the at least one top impeller and the at least one bottom impeller is between 1.229 x the diameter of the bottom impeller (D bottom) and 2 x D bottom, wherein the height of a liquid above the at least one top impeller (D 0) is between 0.3 x the diameter of the at least one top impeller (D top) and 2.5 x D top, and wherein a bottom clearance (D c) between the tank bottom and the center-line of the bottom impeller is at least 0.35 x D bottom, and wherein the bioreactor maintains a homogeneous environment such that pH, dissolved oxygen tension and temperature.
A printable recording media comprising: a. a composite base substrate that contains, at least, two constituent material layers, that are fiber layers, and that are laminated together with a flame resistant adhesion layer, containing an adhesive compound and up to 50 % of a flame retardant agent by total weight of the flame resistant adhesion layer; b. and an image receiving layer that is coated on one side of the composite supporting substrate. a. a composite base substrate that contains, at least, two constituent material layers, that are fiber layers, and that are laminated together with a flame resistant adhesion layer, containing an adhesive compound and up to 50 % of a flame retardant agent by total weight of the flame resistant adhesion layer; b. and an image receiving layer that is coated on one side of the composite supporting substrate.
A method comprising: Determining, at a device, a first transmission power of a first uplink transmission based on a first set of higher layer configured power control parameters associated with a first transmit time interval length, where a higher layer is higher than a physical layer, where the first uplink transmission spans the first transmit time interval length, and where the first transmit time interval length comprises a first number of symbols; determining a second transmission power of a second uplink transmission based on a second set of higher layer configured power control parameters associated with a second transmit time interval length, where the second uplink transmission spans the second transmit time interval length, and where the second transmit time interval length comprises a second number of symbols and the second number is different from the first number; transmitting the first uplink transmission in a subframe using the first transmission power; and transmitting at least the second uplink transmission in the subframe using the second transmission power, where the first uplink transmission and the second uplink transmission overlap in time for at least one symbol duration. Determining, at a device, a first transmission power of a first uplink transmission based on a first set of higher layer configured power control parameters associated with a first transmit time interval length, where a higher layer is higher than a physical layer, where the first uplink transmission spans the first transmit time interval length, and where the first transmit time interval length comprises a first number of symbols; determining a second transmission power of a second uplink transmission based on a second set of higher layer configured power control parameters associated with a second transmit time interval length, where the second uplink transmission spans the second transmit time interval length, and where the second transmit time interval length comprises a second number of symbols and the second number is different from the first number; transmitting the first uplink transmission in a subframe using the first transmission power; and transmitting at least the second uplink transmission in the subframe using the second transmission power, where the first uplink transmission and the second uplink transmission overlap in time for at least one symbol duration.
A process for making moisture curable silylated polyurethane resin comprising reacting hydroxyl-terminated polyurethane prepolymer with 3-isocyanatopropyltrimethoxysilane in the presence of at least one urethane reaction-promoting organobismuth catalyst wherein the hydroxyl-terminated polyurethane prepolymer is obtained from the reaction of isophorone diisocyanate with a molar excess of polypropylene glycol with a functionality of 2, a number average molecular weight of 8,000 or 12,000 and a moisture concentration of less than 200 ppm by Karl Fischer titration, in the presence of the at least one urethane reaction-promoting organobismuth catalyst, the reaction of the isophorone diisocyanate with a molar excess of said polypropylene glycol is carried out in the absence of a tin-containing compound.
A circuit interruption device (100; 300; 400; 500) comprising: at least one set of contacts (310; 410); a contact actuator mechanism (330; 430) configured to open the at least one set of contacts (310; 410); and a trip control circuit (460'; 600) configured to: cause the contact actuator mechanism (330; 430) to open the at least one set of contacts (310; 410) responsive to a trip condition satisfying a first trip criterion; temporarily apply to the contact actuator mechanism (330; 430) a second trip criterion responsive to the opening of the at least one set of contacts, the second trip criterion being more sensitive to a trip condition than the first trip criterion; apply the second trip criterion after a succeeding closure of the at least one set of contacts (310; 410); and, after a predetermined period of time following succeeding closure of the at least one set of contacts has expired resume the application of the first trip criterion to the contact actuator mechanism (330; 430). at least one set of contacts (310; 410); a contact actuator mechanism (330; 430) configured to open the at least one set of contacts (310; 410); and a trip control circuit (460'; 600) configured to: cause the contact actuator mechanism (330; 430) to open the at least one set of contacts (310; 410) responsive to a trip condition satisfying a first trip criterion; temporarily apply to the contact actuator mechanism (330; 430) a second trip criterion responsive to the opening of the at least one set of contacts, the second trip criterion being more sensitive to a trip condition than the first trip criterion; apply the second trip criterion after a succeeding closure of the at least one set of contacts (310; 410); and, after a predetermined period of time following succeeding closure of the at least one set of contacts has expired resume the application of the first trip criterion to the contact actuator mechanism (330; 430). cause the contact actuator mechanism (330; 430) to open the at least one set of contacts (310; 410) responsive to a trip condition satisfying a first trip criterion; temporarily apply to the contact actuator mechanism (330; 430) a second trip criterion responsive to the opening of the at least one set of contacts, the second trip criterion being more sensitive to a trip condition than the first trip criterion; apply the second trip criterion after a succeeding closure of the at least one set of contacts (310; 410); and, after a predetermined period of time following succeeding closure of the at least one set of contacts has expired resume the application of the first trip criterion to the contact actuator mechanism (330; 430).
Pressure-relief device for a protective housing for pressure-resistant encapsulation of operating media which can form ignition sources, with a receiving body having a passage, with a porous body which is arranged in the passage and has two exposed faces (26, 27) facing away from one another and a rim, wherein at its rim, the body is provided with a pore closure, characterised in that the body is a wire or fibre structure made of metal with wires or fibres arranged in an orderly or disorderly fashion, and the pore closure: a) results from a pretension of a contact face provided on the rim against a seating face provided on the receiving body, in order to form the pore closure by firm contact of the contact face on the seating face, or b) results from holding of the porous body with a rim clamp which applies a clamping pressure that is sufficiently high for the pores of the porous body to collapse in the action region of the edge clamp, again giving the pore closure, or c) the pore closure comprises material arranged on the rim which closes the pores of the body and is introduced into in cavities and/or pores of the body at the rim. with a receiving body having a passage, with a porous body which is arranged in the passage and has two exposed faces (26, 27) facing away from one another and a rim, wherein at its rim, the body is provided with a pore closure, characterised in that the body is a wire or fibre structure made of metal with wires or fibres arranged in an orderly or disorderly fashion, and the pore closure: a) results from a pretension of a contact face provided on the rim against a seating face provided on the receiving body, in order to form the pore closure by firm contact of the contact face on the seating face, or b) results from holding of the porous body with a rim clamp which applies a clamping pressure that is sufficiently high for the pores of the porous body to collapse in the action region of the edge clamp, again giving the pore closure, or c) the pore closure comprises material arranged on the rim which closes the pores of the body and is introduced into in cavities and/or pores of the body at the rim. a) results from a pretension of a contact face provided on the rim against a seating face provided on the receiving body, in order to form the pore closure by firm contact of the contact face on the seating face, or b) results from holding of the porous body with a rim clamp which applies a clamping pressure that is sufficiently high for the pores of the porous body to collapse in the action region of the edge clamp, again giving the pore closure, or c) the pore closure comprises material arranged on the rim which closes the pores of the body and is introduced into in cavities and/or pores of the body at the rim.