mhurhangee/ep-ind-claims huggingface dataset:
Mirror, wherein the mirror has an optical effective surface (11, 31), comprising • a mirror substrate (12, 32); • a reflection layer stack (21, 41) for reflecting electromagnetic radiation that is incident on the optical effective surface (11, 31); and • at least one piezoelectric layer (16, 36), which is arranged between the mirror substrate (12, 32) and the reflection layer stack (21, 41) and to which an electric field can be applied for producing a locally variable deformation via a first electrode arrangement (20, 40), located on the side of the piezoelectric layer (16, 36) that faces the reflection layer stack (21, 41), and a second electrode arrangement (14, 34), located on the side of the piezoelectric layer (16, 36) that faces the mirror substrate (12, 32); • wherein the first electrode arrangement (20, 40) and/or the second electrode arrangement (14, 34) has a plurality of electrodes (20a, 20b, 20c,..., 40a, 40b, 40c,...) to which a voltage with respect to the respectively other electrode arrangement can be applied in each case via a supply line (19a, 19b, 19c,..., 39a, 39b, 39c,...); • wherein furthermore a shielding layer (22, 42) made from electrically conductive material is arranged such that the shielding layer (22, 42) at least partially shields an electric field produced by said supply lines (19a, 19b, 19c,..., 39a, 39b, 39c,...) from the piezoelectric layer (16, 36); • wherein the shielding layer (22, 42) is produced from a material having an electrical conductivity of more than 10 6 siemens/metre. • a mirror substrate (12, 32); • a reflection layer stack (21, 41) for reflecting electromagnetic radiation that is incident on the optical effective surface (11, 31); and • at least one piezoelectric layer (16, 36), which is arranged between the mirror substrate (12, 32) and the reflection layer stack (21, 41) and to which an electric field can be applied for producing a locally variable deformation via a first electrode arrangement (20, 40), located on the side of the piezoelectric layer (16, 36) that faces the reflection layer stack (21, 41), and a second electrode arrangement (14, 34), located on the side of the piezoelectric layer (16, 36) that faces the mirror substrate (12, 32); • wherein the first electrode arrangement (20, 40) and/or the second electrode arrangement (14, 34) has a plurality of electrodes (20a, 20b, 20c,..., 40a, 40b, 40c,...) to which a voltage with respect to the respectively other electrode arrangement can be applied in each case via a supply line (19a, 19b, 19c,..., 39a, 39b, 39c,...); • wherein furthermore a shielding layer (22, 42) made from electrically conductive material is arranged such that the shielding layer (22, 42) at least partially shields an electric field produced by said supply lines (19a, 19b, 19c,..., 39a, 39b, 39c,...) from the piezoelectric layer (16, 36); • wherein the shielding layer (22, 42) is produced from a material having an electrical conductivity of more than 10 6 siemens/metre.
A method performed by a wireless device for receiving paging information, the method comprising: receiving a paging message from a network node, the paging message including a paging indicator associated with a plurality of wireless devices; determining the wireless device is associated with the paging indicator; transmitting a random access request message to the network node; the method characterized in: receiving a random access response message from the network node, the random access response message including a radio network temporary identifier, RNTI, which is a RNTI other than a radio access, RA, RNTI taken from a standardized set of RNTIs; determining, based on the RNTI, whether the random access response message includes additional paging information for the wireless device; and upon determining that the random access response message includes the additional paging information for the wireless device, decoding the random access response message. receiving a paging message from a network node, the paging message including a paging indicator associated with a plurality of wireless devices; determining the wireless device is associated with the paging indicator; transmitting a random access request message to the network node; the method characterized in: receiving a random access response message from the network node, the random access response message including a radio network temporary identifier, RNTI, which is a RNTI other than a radio access, RA, RNTI taken from a standardized set of RNTIs; determining, based on the RNTI, whether the random access response message includes additional paging information for the wireless device; and upon determining that the random access response message includes the additional paging information for the wireless device, decoding the random access response message. receiving a random access response message from the network node, the random access response message including a radio network temporary identifier, RNTI, which is a RNTI other than a radio access, RA, RNTI taken from a standardized set of RNTIs; determining, based on the RNTI, whether the random access response message includes additional paging information for the wireless device; and upon determining that the random access response message includes the additional paging information for the wireless device, decoding the random access response message.
A method for characterizing blood flow in an atrioventricular valve of the human heart, the atrioventricular valve connecting an atrium with a corresponding ventricle of the heart, the ventricle being fluidly coupled to a particular vessel that transports blood outside the ventricle, the method comprising: a) obtaining image data of the heart, for example angiographic x-ray image frames; b) identifying a contour of the atrium within the image data; c) identifying a contour of a region within the particular vessel within the image data; d) converting the image data to densitometric image data; e) calculating a time-density curve for the atrium from the contour of the atrium and the densitometric image data; f) calculating a time-density curve for the region of the particular vessel from the contour of the region of the vessel and the densitometric image data; and g) generating data representing at least one regurgitation fraction related to the atrioventricular valve of the heart from the time-density curves. a) obtaining image data of the heart, for example angiographic x-ray image frames; b) identifying a contour of the atrium within the image data; c) identifying a contour of a region within the particular vessel within the image data; d) converting the image data to densitometric image data; e) calculating a time-density curve for the atrium from the contour of the atrium and the densitometric image data; f) calculating a time-density curve for the region of the particular vessel from the contour of the region of the vessel and the densitometric image data; and g) generating data representing at least one regurgitation fraction related to the atrioventricular valve of the heart from the time-density curves.
A receptacle connector comprising: a shielding case; an insulator accommodated in the shielding case; and a first contact arranged on a terminal supporting part of the insulator, a clearance provided between a tip of the terminal supporting part of the insulator and a tip of the first contact, wherein the tip of the terminal supporting part has an inclined surface to provide the clearance only at the tip of the terminal supporting part. a shielding case; an insulator accommodated in the shielding case; and a first contact arranged on a terminal supporting part of the insulator, a clearance provided between a tip of the terminal supporting part of the insulator and a tip of the first contact, wherein the tip of the terminal supporting part has an inclined surface to provide the clearance only at the tip of the terminal supporting part.
A method for use in a first node for a wireless access communication system, comprising the steps of: • controlling traffic to and from users, UEs, within a cell in the system; • employing a variety of multi antenna transmit modes, comprising transmit diversity and spatial multiplexing, for down link transmissions, by use of a plurality of transmit antennas (111,113); • performing Random Access, RA, procedures with UEs which do not have a dedicated up link resource, i.e. a resource to the eNodeB, and that involves the transmission of a random access response message over a downlink shared channel, and the transmission of a contention resolution message, wherein one and the same down link multi antenna transmit mode is applied at the transmission of the random access response message and at the transmission of the contention resolution message, the one and the same down link multi antenna transmit mode is one that the UE possesses information on. • controlling traffic to and from users, UEs, within a cell in the system; • employing a variety of multi antenna transmit modes, comprising transmit diversity and spatial multiplexing, for down link transmissions, by use of a plurality of transmit antennas (111,113); • performing Random Access, RA, procedures with UEs which do not have a dedicated up link resource, i.e. a resource to the eNodeB, and that involves the transmission of a random access response message over a downlink shared channel, and the transmission of a contention resolution message, wherein one and the same down link multi antenna transmit mode is applied at the transmission of the random access response message and at the transmission of the contention resolution message, the one and the same down link multi antenna transmit mode is one that the UE possesses information on.
A capacitive touch panel comprising a transparent or translucent panel substrate, a front surface of the substrate comprising a continuous conductive transparent or translucent metal layer, which, in use, is visible to a user; at least one light source associated with a back surface of the substrate, wherein said light source is switchable between an on state in which an illuminated icon is visible on the front surface of the panel and an off state in which the illuminated icon is not visible on the front surface of the panel; wherein the conductive transparent or translucent metal layer is applied to the entire front surface of the substrate, where the light source is switchable from the off state to the on state by a detected change in capacitance resulting from an object capacitively coupling with the conductive transparent or translucent metal layer, once the change in capacity is detected, a signal to switch the light sources to the on state is generated and the icons are illuminated and become visible on the front surface; and at least one capacitive switch associated with the back surface of the substrate able to be activated by a user pressing the touch panel in a vicinity of an illuminated icon providing an output signal capable of performing a function.
An annular workpiece quenching method, comprising the steps of: cooling an annular workpiece in a state where an inner die is arranged radially inward of the annular workpiece that has been heated at a quenching temperature; pressing the annular workpiece in a width direction at a low pressure and inserting the annular workpiece in an outer die with restraint of an inner peripheral surface of the annular workpiece continued, when the restraint of the inner peripheral surface of the annular workpiece is started by contact of the inner peripheral surface of the annular workpiece with the inner die due to contraction of the inner peripheral surface caused by cooling, after a temperature of the annular workpiece is decreased to a temperature equal to or lower than 500°C but before the temperature of the annular workpiece is decreased to a martensitic transformation start temperature; and restraining the annular workpiece in the width direction between the inner die and a widthwise restraint jig by pressing the annular workpiece in the width direction at a high pressure, and restraining an outer peripheral surface of the annular workpiece by bringing the outer peripheral surface of the annular workpiece that undergoes volume expansion due to martensitic transformation, into contact with the outer die, after the temperature of the annular workpiece is decreased to a temperature that is equal to or lower than the martensitic transformation start temperature. cooling an annular workpiece in a state where an inner die is arranged radially inward of the annular workpiece that has been heated at a quenching temperature; pressing the annular workpiece in a width direction at a low pressure and inserting the annular workpiece in an outer die with restraint of an inner peripheral surface of the annular workpiece continued, when the restraint of the inner peripheral surface of the annular workpiece is started by contact of the inner peripheral surface of the annular workpiece with the inner die due to contraction of the inner peripheral surface caused by cooling, after a temperature of the annular workpiece is decreased to a temperature equal to or lower than 500°C but before the temperature of the annular workpiece is decreased to a martensitic transformation start temperature; and restraining the annular workpiece in the width direction between the inner die and a widthwise restraint jig by pressing the annular workpiece in the width direction at a high pressure, and restraining an outer peripheral surface of the annular workpiece by bringing the outer peripheral surface of the annular workpiece that undergoes volume expansion due to martensitic transformation, into contact with the outer die, after the temperature of the annular workpiece is decreased to a temperature that is equal to or lower than the martensitic transformation start temperature.
A razor cartridge comprising • a housing having a shaving surface; • at least one blade having a blade tip positioned at said shaving surface; and • a shaving aid positioned on said housing to expose skin contacting portion of said shaving aid on said shaving surface, said shaving aid comprising a co-axial filament having a diameter of from 10 nm to 1000 nm, wherein said co-axial filament comprises a core and a sheath and wherein at least 15% by weight of total filament are water soluble filaments. • a housing having a shaving surface; • at least one blade having a blade tip positioned at said shaving surface; and • a shaving aid positioned on said housing to expose skin contacting portion of said shaving aid on said shaving surface, said shaving aid comprising a co-axial filament having a diameter of from 10 nm to 1000 nm, wherein said co-axial filament comprises a core and a sheath and wherein at least 15% by weight of total filament are water soluble filaments.
Improved electric pizza oven comprising: a cooking surface; an electrical heating element below the cooking surface protected towards the oven support surface; an upper electrical heating element inserted in the upper openable lid and facing the cooking surface; a thermal insulation placed in the thickness of the upper lid; outside the lid a cover determining a cavity for the passage of convection and cooling air of the upper cover of the lid; characterised in that the cooking surface is from refractory stone and in that it has the cover of the lid consisting of an upper half-shell with venting openings of the cooling air of an upper cavity towards the outside of the outer surface of the half-shell to protect the lid with electrical heating element; the cooling air forced by an upper fan to cross the venting openings and an edge of the upper cavity.
Adjustment arrangement for an adjustment device of a vehicle seat for adjusting a vehicle seat component (2, 3), having a transverse pipe and at least one connection portion (8, 10) which is connected to the transverse pipe in a torsion-resistant manner, wherein, when the transverse pipe is twisted, an adjustment of the vehicle seat component (2, 3) can be brought about, wherein the transverse pipe is inserted in a hole in the connection portion (8, 10) for torsion-resistant securing to the connection portion (8, 10), characterised in that there is formed on the connection portion in the region of the hole a connection portion abutment face which is chamfered by an angle (α) and which a transverse pipe abutment face of the transverse pipe, which face is chamfered in the opposite direction, abuts in order to limit an axial movement of the transverse pipe, and an end region of the transverse pipe on a connection portion rear-side of the connection portion is shaped radially outwards in such a manner that the connection portion is clamped between the transverse pipe abutment face which is chamfered in the opposite direction and which abuts the chamfered connection portion abutment face and the outwardly shaped end region.
Applicator device for applying at least one application medium to fibrous materials, in particular an applicator device for applying an application medium to hair, having a separation unit, which has at least two separating elements (18a, 19a, 20a, 21a, 22a, 23a) which form at least one application gap (24a, 25a, 26a, 27a, 28a), which is provided for accommodating hair in order for the application medium to be applied, and having at least one application volume, which is enclosed at least to some extent by the at least two separating elements (18a, 19a, 20a, 21a, 22a, 23a), wherein the separating elements (18a, 19a, 20a, 21a, 22a, 23a) each having an inner contour which forms a wall for the application volume and encloses the application volume at least to some extent, and wherein the application gaps (24a, 25a, 26a, 27a, 28a), which are formed by the separating elements (18a, 19a, 20a, 21a, 22a, 23a), begin at a common top line and end at a common base line, characterized in that the thickness of the wall is at its greatest in the region of the base line and decreases continually in the direction of the top line.
Holder for an air circulation unit (1, 20, 40, 60, 80) to be mounted to a flat radiator (2, 23, 43, 61, 81, 240, 250, 260), comprising at least one fixing element (3, 21, 22, 41, 67, 82, 116, 130, 140, 150, 160, 170, 180, 201, 299) and one receiving housing (4, 29, 42, 66, 93, 110) or an assembly frame, characterized in that said at least one fixing element (3, 21, 22, 41, 67, 82, 116, 130, 140, 150, 160, 170, 180, 201, 299) is provided at one end to be mounted to a lower weld seam (12, 24, 49, 68, 84) of a flat radiator (2, 23, 43, 61, 81, 240, 250, 260) and is at the other end directly or indirectly connected to the receiving housing (4, 29, 42, 66, 93, 110) or the assembly frame, the fixing element (3, 21, 22, 41, 67, 82, 116, 130, 140, 150, 160, 170, 180, 201, 299) comprising a first groove (48, 69, 83, 123, 131, 141, 151, 161, 171, 181) for receiving the weld seam (12, 49, 24, 68, 84) and being fixable by a bolt (50, 70, 85, 135, 143, 153, 163, 173, 184, 220).
A computer implemented method comprising: monitoring, by a platform, wherein the platform is an edge device of a computing system comprising a central server communicatively coupled to the platform, performance data of an algorithm and/or artificial intelligence, AI, model deployed on the platform; based on a predetermined set of rules provided by the central server, determining (120, 240) one or more performance criteria, comprising one or more performance thresholds, for the algorithm and/or AI model, wherein the set of rules is associated with the algorithm, the AI model and/or the platform; comparing, by the platform, the monitored performance data to the one or more performance criteria; triggering an alert event based on the comparison of the monitored data to the one or more performance criteria, wherein triggering the alert event comprises transmitting the alert from the platform to the central server, wherein transmitting the alert comprises including the monitored performance data underlying the trigger event and the one or more performance criteria; and amending, based on the alert, the same algorithms and/or AI models deployed on all of a plurality of platforms. monitoring, by a platform, wherein the platform is an edge device of a computing system comprising a central server communicatively coupled to the platform, performance data of an algorithm and/or artificial intelligence, AI, model deployed on the platform; based on a predetermined set of rules provided by the central server, determining (120, 240) one or more performance criteria, comprising one or more performance thresholds, for the algorithm and/or AI model, wherein the set of rules is associated with the algorithm, the AI model and/or the platform; comparing, by the platform, the monitored performance data to the one or more performance criteria; triggering an alert event based on the comparison of the monitored data to the one or more performance criteria, wherein triggering the alert event comprises transmitting the alert from the platform to the central server, wherein transmitting the alert comprises including the monitored performance data underlying the trigger event and the one or more performance criteria; and amending, based on the alert, the same algorithms and/or AI models deployed on all of a plurality of platforms.
A communication server device comprising: an agent interface configured for a human agent to communicate between the agent interface and a remote client (110A-C); enhancement logic configured to receive a communication from the remote client (110A-C) via a first communication channel and to execute application logic on the remote client, the application logic being configured to open a second communication channel between a device locally connected to the remote client and the server device using an identifier stored on the remote client, the second communication channel having an enhanced communication functionality relative to the first communication channel; account identification logic configured to associate the identifier of the remote client (110A-C) with an account of a user of the remote client; and a processor configured to execute at least the enhancement logic. an agent interface configured for a human agent to communicate between the agent interface and a remote client (110A-C); enhancement logic configured to receive a communication from the remote client (110A-C) via a first communication channel and to execute application logic on the remote client, the application logic being configured to open a second communication channel between a device locally connected to the remote client and the server device using an identifier stored on the remote client, the second communication channel having an enhanced communication functionality relative to the first communication channel; account identification logic configured to associate the identifier of the remote client (110A-C) with an account of a user of the remote client; and a processor configured to execute at least the enhancement logic.