mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring logical deployment states of a contact center, the logical deployment states comprising the states of virtual machine instances, the method comprising: migrating, by the processor, a state of the contact center from a first logical deployment state to a second logical deployment state; recording, by the processor, steps in migrating from the first logical deployment state to the second logical deployment state; storing, by the processor, the recorded steps in association with metadata describing the second logical deployment state; monitoring, by the processor, health of the second logical deployment state; and taking an action by the processor for moving the state of the contact center to a healthy state in response to determining that the second logical deployment state is unhealthy. migrating, by the processor, a state of the contact center from a first logical deployment state to a second logical deployment state; recording, by the processor, steps in migrating from the first logical deployment state to the second logical deployment state; storing, by the processor, the recorded steps in association with metadata describing the second logical deployment state; monitoring, by the processor, health of the second logical deployment state; and taking an action by the processor for moving the state of the contact center to a healthy state in response to determining that the second logical deployment state is unhealthy.
Rotating electrical machine which comprises the following: - a rotor having a laminated rotor core which is arranged on a rotor shaft; - wherein the rotor has at least one end winding cover which terminates the laminated rotor core in the axial direction of the rotor shaft; - the end winding cover has at least one inner face (6, 15) which faces the laminated rotor core; - a balancing ring is arranged concentrically around the rotor shaft on the inner face (6, 15) of the end winding cover, characterized in that the balancing ring is attached to the inner face (6, 15) of the end winding cover by means of a rolling undulation produced by a rolling process which is made in a side wall of the end winding cover and which firmly clamps the balancing ring against the inner face (6, 15). - a rotor having a laminated rotor core which is arranged on a rotor shaft; - wherein the rotor has at least one end winding cover which terminates the laminated rotor core in the axial direction of the rotor shaft; - the end winding cover has at least one inner face (6, 15) which faces the laminated rotor core; - a balancing ring is arranged concentrically around the rotor shaft on the inner face (6, 15) of the end winding cover,
Verification device for a hologram, wherein the hologram is a hologram (45,45',51) which reflects and/or diffracts light which impinges at a reconstruction impinging angle in a reconstruction in a reconstruction reflecting angle, and wherein the hologram comprises at least two regions (46, 46', 46", 46"', 47, 47') which reflect and/or diffract the light impinging from angle ranges of different sizes about the reconstruction impinging angle into correspondingly different sized angle ranges about the reconstruction reflection angle, and/or a security document with such a hologram, comprising at least one light source and a detection unit for the detecting of reconstructions of the hologram, wherein the detection unit is configured such as to detect a reconstruction of the hologram in a locally resolved manner, and the verification device is configured such as to detect reconstructions of the hologram under at least two predetermined reconstruction geometries, which are adjusted to the angle ranges of the scatter characteristics of the at least two regions (46, 46', 46", 46"', 47, 47'), and further provided are an evaluation unit, which is configured such as to reach a verification decision on the basis of differences in the reconstructions detected, and an output unit for outputting the verification decision, characterised in that the verification device is configured such as to detect a reconstruction of the hologram under a marked-out reconstruction geometry, under which the at least two regions (46, 46', 46", 46''', 47, 47') in the reconstruction are appraised as being equally bright or equally intense, and that the verification device comprises an extraction unit, which is configured such as to extract an individualising pattern of the hologram from a reconstruction of the hologram detected under the marked-out reconstruction geometry, which extends over at least parts of the two regions (46, 46', 46", 46"', 47, 47'), and that the verification device comprises a further detection unit, coupled to the evaluation unit, in order to detect an additional feature of the hologram or of the security document, and that the evaluation unit is configured such as to compare the individualising pattern against the additional feature.
An end effector (20,120) for determining blood pressure, comprising: a pair of jaw members (22a, 22b, 122a, 122b), a first jaw member (22a, 122a) of the pair of jaw members including: a jaw body; a piston (36, 136) coupled to the jaw body and configured to move relative to the jaw body to apply pressure to tissue disposed between the pair of jaw members; a first inflatable member (50a, 150a) coupled to the piston; and a first pressure sensor (60a, 160) associated with the first inflatable member, the first pressure sensor configured to detect pressure fluctuations caused by blood flowing through tissue disposed between the pair of jaw members. a jaw body; a piston (36, 136) coupled to the jaw body and configured to move relative to the jaw body to apply pressure to tissue disposed between the pair of jaw members; a first inflatable member (50a, 150a) coupled to the piston; and a first pressure sensor (60a, 160) associated with the first inflatable member, the first pressure sensor configured to detect pressure fluctuations caused by blood flowing through tissue disposed between the pair of jaw members.
An image processing system for compositing photographed images from a plurality of cameras to generate an overhead view image, comprising: an image detection unit that is configured to extract image feature amounts of two photographed images in a superposition area (300, 302, 305, 307) which is photographed by two cameras overlappingly in the overhead view image, and an image conversion unit configured to set blend rates in accordance with the extracted image feature amounts and composite the overhead view image in the superposition area (300, 302, 305, 307) from the two photographed images, characterised in that the image conversion unit is configured to choose whether to composite the two photographed images in the superposition area (300, 302, 305, 307) at blend rates set in accordance with the image feature amounts, or to select one of the photographed images in the superposition area (300, 302, 305, 307), in accordance with an intensity of a correlation of the image feature amounts and presence/absence of a locational overlapping of the image feature amounts between the two photographed images in the superposition area (300, 302, 305, 307) extracted by the image detection unit. an image detection unit that is configured to extract image feature amounts of two photographed images in a superposition area (300, 302, 305, 307) which is photographed by two cameras overlappingly in the overhead view image, and an image conversion unit configured to set blend rates in accordance with the extracted image feature amounts and composite the overhead view image in the superposition area (300, 302, 305, 307) from the two photographed images, characterised in that the image conversion unit is configured to choose whether to composite the two photographed images in the superposition area (300, 302, 305, 307) at blend rates set in accordance with the image feature amounts, or to select one of the photographed images in the superposition area (300, 302, 305, 307), in accordance with an intensity of a correlation of the image feature amounts and presence/absence of a locational overlapping of the image feature amounts between the two photographed images in the superposition area (300, 302, 305, 307) extracted by the image detection unit.
Contact-making element having: - a sleeve-like first section for establishing electrical contact between first section and an electrical line wire; and at least one second section for establishing electrical contact with and mechanical fixing to a carrier device for at least one electrical conductor track, characterized in that the contact-making element has at least one slot arrangement in the first section, so that a structure of the first section is weakened. - a sleeve-like first section for establishing electrical contact between first section and an electrical line wire; and
Non-syngeneic pulmonary tissue cells in suspension comprising an effective amount of hematopoietic precursor cells (HPCs) or supplemented with HPCs, wherein said effective amount is a sufficient amount to achieve tolerance to said pulmonary tissue cells in the absence of chronic immunosuppressive regimen, and wherein said effective amount of said HPCs comprises at least about 1 x 10 5 cells per Kg body weight of a subject, for use in treating a pulmonary disorder or injury in a subject in need thereof or for inducing donor specific tolerance in a subject in need of a pulmonary cell or tissue transplantation.
A gas barrier packaging material comprising: a support; and a gas barrier layer made up of an adhesive layer which is disposed on one surface of the support and a barrier layer which is formed on the adhesive layer, wherein the adhesive layer is formed from a coating liquid containing an aqueous polyurethane resin, a water soluble polymer and a curing agent with a formulation ratio of the aqueous polyurethane resin and the water soluble polymer being in the range from 10:90 to 60:40 in mass, wherein the aqueous polyurethane resin is a water soluble or water dispersible anionic self-emulsified polyurethane, the water soluble polymer is at least one of a polyvinyl alcohol polymer, and the curing agent is a compound which is reactive to at least one of the aqueous polyurethane resin and the water soluble polymer, wherein the barrier layer contains at least polyvalent metal salt of a polycarboxylic acid polymer and when an infrared absorption spectrum of the barrier layer is measured by a transmission method as disclosed in the description, a ratio (α/β), which is a ratio of a maximum peak height (a) of an absorbance in the range from 1490 cm -1 to 1659 cm -1 to a maximum peak height (β) of an absorbance in the range from 1660 cm -1 to 1750 cm -1, is 1 or more. a support; and a gas barrier layer made up of an adhesive layer which is disposed on one surface of the support and a barrier layer which is formed on the adhesive layer, wherein the adhesive layer is formed from a coating liquid containing an aqueous polyurethane resin, a water soluble polymer and a curing agent with a formulation ratio of the aqueous polyurethane resin and the water soluble polymer being in the range from 10:90 to 60:40 in mass, wherein the aqueous polyurethane resin is a water soluble or water dispersible anionic self-emulsified polyurethane, the water soluble polymer is at least one of a polyvinyl alcohol polymer, and the curing agent is a compound which is reactive to at least one of the aqueous polyurethane resin and the water soluble polymer, wherein the barrier layer contains at least polyvalent metal salt of a polycarboxylic acid polymer and when an infrared absorption spectrum of the barrier layer is measured by a transmission method as disclosed in the description, a ratio (α/β), which is a ratio of a maximum peak height (a) of an absorbance in the range from 1490 cm -1 to 1659 cm -1 to a maximum peak height (β) of an absorbance in the range from 1660 cm -1 to 1750 cm -1, is 1 or more.
A method of establishing multiple links with multiple component carriers in a LTE-Advanced wireless communication system supporting carrier aggregation, the method being performed by a network of the LTE-Advanced wireless communication system, the method comprising: establishing a first link corresponding to a first component carrier by performing a first radio resource control, RRC, procedure, to a mobile device of the wireless communication system; establishing at least a link corresponding to at least a component carrier other than the first component carrier by performing a second RRC procedure which is initiated by transmitting a first RRC message to the mobile device via the first link, to the mobile device; and performing a random access procedure initiated by receiving a random access preamble transmitted from the mobile device, for synchronization of at least one link established by the second RRC procedure to the mobile device. establishing a first link corresponding to a first component carrier by performing a first radio resource control, RRC, procedure, to a mobile device of the wireless communication system; establishing at least a link corresponding to at least a component carrier other than the first component carrier by performing a second RRC procedure which is initiated by transmitting a first RRC message to the mobile device via the first link, to the mobile device; and performing a random access procedure initiated by receiving a random access preamble transmitted from the mobile device, for synchronization of at least one link established by the second RRC procedure to the mobile device.
An orthotic device having a first and second cuffs (410, 420) connected to one another by an articulating hinge between first and second positions, the orthotic device defining a proximal-distal plane, and an anterior-posterior plane intersecting one another to form an intersection axis, the hinge comprising: an upper linkage having first and second pivoting ends; a lower linkage having first and second pivoting ends; and first and second upright linkages (440, 450) pivotally connected to the first and second pivoting ends of the upper and lower linkages, characterized in that the pivotal connection of the first and second upright linkages (440, 450) forms an instant center of rotation (ICoR) located at an inferior position on the posterior side of the anterior-posterior plane, and is adapted, in use, to urge a force directed through the second cuff due to a relative displacement of the first cuff relative to the second cuff which increases as the orthotic device approaches full flexion, wherein in extension, the upper linkage is caused to fold over the lower linkage, wherein in flexion, the lower linkage is caused to move anteriorly to generate an anteriorly directed force, wherein the second cuff is arranged to shift relative to the first cuff in either a posteriorly or anteriorly direction at least 1 mm from an axis along which the first and second cuffs extend in a second position, relative to when the first and second cuffs (410. 420) extend in a first position. an upper linkage having first and second pivoting ends; a lower linkage having first and second pivoting ends; and first and second upright linkages (440, 450) pivotally connected to the first and second pivoting ends of the upper and lower linkages, characterized in that the pivotal connection of the first and second upright linkages (440, 450) forms an instant center of rotation (ICoR) located at an inferior position on the posterior side of the anterior-posterior plane, and is adapted, in use, to urge a force directed through the second cuff due to a relative displacement of the first cuff relative to the second cuff which increases as the orthotic device approaches full flexion, wherein in extension, the upper linkage is caused to fold over the lower linkage, wherein in flexion, the lower linkage is caused to move anteriorly to generate an anteriorly directed force, wherein the second cuff is arranged to shift relative to the first cuff in either a posteriorly or anteriorly direction at least 1 mm from an axis along which the first and second cuffs extend in a second position, relative to when the first and second cuffs (410. 420) extend in a first position.
A membrane support, comprising a support surface provided on an upstream side of the membrane support and adapted to support a flat filtration membrane thereon, and a drainage structure arranged below the support surface to collect a fluid that has passed the filtration membrane supported on the support surface and guide the fluid away to a downstream side, wherein the support surface has a plurality of recesses distributed over the support surface and formed to absorb expansions of the filtration membrane, wherein the drainage structure comprises a channel network connected with a drainage port on the downstream side of the membrane support, wherein the depth of the recesses and their width is much smaller than that of the channels forming the drainage structure for the fluid having passed the membrane, wherein the drainage channels are formed radially and the support surface is formed by raised lands or ridges and the small recesses are formed in the top surfaces of the lands to also extend in a sinusoidal profile in the radial direction, wherein the peaks and bottoms are aligned in circumferential direction to also form concentric wave patterns, wherein the membrane support has a peripheral membrane edge holding feature, which is a raised rim formed so as to extend about the external periphery of the membrane support surface and so as to be raised above the surface in order to define a step-like structure serving as a boundary for the movement and/or expansion of the membrane disk, and wherein the ratio of width to depth of the recesses is from 5 to 10. a support surface provided on an upstream side of the membrane support and adapted to support a flat filtration membrane thereon, and a drainage structure arranged below the support surface to collect a fluid that has passed the filtration membrane supported on the support surface and guide the fluid away to a downstream side, wherein the support surface has a plurality of recesses distributed over the support surface and formed to absorb expansions of the filtration membrane, wherein the drainage structure comprises a channel network connected with a drainage port on the downstream side of the membrane support, wherein the depth of the recesses and their width is much smaller than that of the channels forming the drainage structure for the fluid having passed the membrane, wherein the drainage channels are formed radially and the support surface is formed by raised lands or ridges and the small recesses are formed in the top surfaces of the lands to also extend in a sinusoidal profile in the radial direction, wherein the peaks and bottoms are aligned in circumferential direction to also form concentric wave patterns, wherein the membrane support has a peripheral membrane edge holding feature, which is a raised rim formed so as to extend about the external periphery of the membrane support surface and so as to be raised above the surface in order to define a step-like structure serving as a boundary for the movement and/or expansion of the membrane disk, and
A fraction collector for dispensing liquids into plural receptacles (P1,P2) arranged in a two dimensional array, the fraction collector comprising a table for supporting said receptacles, and an arm supported above the table, in turn supporting a liquid dispenser, wherein the arm is rotatable about an arm axis and wherein the liquid dispenser is movable along the arm and the arm includes a carriage slideable to provide said movement of the liquid dispenser along the arm, the liquid dispenser being repositionable above the receptacles (P1,P2) as a result of said rotation and as a result of said movement along the arm, the fraction collector being characterized in that: the movement of the carriage is caused by a belt connected to the carriage, in turn driven by a pulley, the pulley being driven by a carriage drive shaft coaxial with the arm axis; the table includes an upstanding pedestal, the axis runs through the pedestal and the arm is rotatably supported on the pedestal; and the pedestal is positioned on the table such that two arrays of receptacles (P1,P2) can be accommodated on the table, one on each side of the pedestal. the movement of the carriage is caused by a belt connected to the carriage, in turn driven by a pulley, the pulley being driven by a carriage drive shaft coaxial with the arm axis; the table includes an upstanding pedestal, the axis runs through the pedestal and the arm is rotatably supported on the pedestal; and the pedestal is positioned on the table such that two arrays of receptacles (P1,P2) can be accommodated on the table, one on each side of the pedestal.
A method for monitoring an SCR injection system including a pump and a reductant injector, the method including: operating the pump; measuring a first pressure drop value in the SCR injection system during actuation of the reductant injector during a purging operation of the SCR injection system, in which the SCR injection system is purged wherein the pump is operated to pump a fluid from the reductant injector to a reductant tank; measuring a second pressure drop value in the SCR injection system during a further actuation of the reductant injector during a second purging operation later than the first purging operation; determining to perform a deposit mitigation strategy for reducing deposits at the outlet of the reductant injector based on the first pressure drop value and the second pressure drop value; determining that the first pressure drop value is within a preset acceptable pressure range; and/or determining that the second pressure drop value is within a present acceptable pressure range, wherein the first purging operation and the second purging operation are separated by a shutdown and restart, or a stop-start of the SCR injection system, particularly a shutdown and a restart of the internal combustion engine. operating the pump; measuring a first pressure drop value in the SCR injection system during actuation of the reductant injector during a purging operation of the SCR injection system, in which the SCR injection system is purged wherein the pump is operated to pump a fluid from the reductant injector to a reductant tank; measuring a second pressure drop value in the SCR injection system during a further actuation of the reductant injector during a second purging operation later than the first purging operation; determining to perform a deposit mitigation strategy for reducing deposits at the outlet of the reductant injector based on the first pressure drop value and the second pressure drop value; determining that the first pressure drop value is within a preset acceptable pressure range; and/or determining that the second pressure drop value is within a present acceptable pressure range, wherein the first purging operation and the second purging operation are separated by a shutdown and restart, or a stop-start of the SCR injection system, particularly a shutdown and a restart of the internal combustion engine.