mhurhangee/ep-ind-claims huggingface dataset:
A joint assembly (86, 198), comprising: a bellows (112, 212) having a first end and a second end and convolutions (114, 214) located there between; a gimbaled joint assembly (100, 200), wherein the gimbaled joint assembly (100, 200) comprises a first support (102, 202) surrounding the first end of the bellows (112, 212) and a portion of the convolutions (114, 214); a second support (104, 204) surrounding the second end of the bellows (112, 212) and a portion of the convolutions (114, 214); and a gimbal ring assembly (106, 206); characterized in that the gimbal ring assembly (106, 206) is operably coupled to the first support (102, 202) and the second support (104, 204) by a set of flexure hinges (108, 208) interconnected via a ring body (110, 210). a bellows (112, 212) having a first end and a second end and convolutions (114, 214) located there between; a gimbaled joint assembly (100, 200), wherein the gimbaled joint assembly (100, 200) comprises a first support (102, 202) surrounding the first end of the bellows (112, 212) and a portion of the convolutions (114, 214); a second support (104, 204) surrounding the second end of the bellows (112, 212) and a portion of the convolutions (114, 214); and a gimbal ring assembly (106, 206); characterized in that the gimbal ring assembly (106, 206) is operably coupled to the first support (102, 202) and the second support (104, 204) by a set of flexure hinges (108, 208) interconnected via a ring body (110, 210). a first support (102, 202) surrounding the first end of the bellows (112, 212) and a portion of the convolutions (114, 214); a second support (104, 204) surrounding the second end of the bellows (112, 212) and a portion of the convolutions (114, 214); and a gimbal ring assembly (106, 206); characterized in that the gimbal ring assembly (106, 206) is operably coupled to the first support (102, 202) and the second support (104, 204) by a set of flexure hinges (108, 208) interconnected via a ring body (110, 210).
An electrical connector shielded against EMP and EMI energy, comprising a cylindrical metallic housing having a plug connector at the front end and a plurality of terminal pins at the rear end, a passageway extending through said housing, wherein signal paths are formed by operatively connecting each pin of the plug connector with a respective terminal pin at the rear end, a circular metallic cross-plate dividing the passageway into a front-end compartment and a rear end compartment, a filter means residing in the rear end compartment, said filter means being connected with the terminal pins, a EMP protection means residing in the front-end compartment and connected with the plug connector and the filter means, said EMP protection means in each signal path comprising a gas-filled discharge tube connected between the signal path and the cylindrical metallic housing and having a turn-on time T, a first suppressing element comprising a coil (201; 202; 203; 204) connected in series with the signal path having a suppression time T 1 less than the turn-on time T, for delaying the rise of a transient pulse characterized in that the EMP protection means further comprise: a second suppressing element connected between the signal path and the cylindrical metallic housing after the first suppressing element, comprising a capacitor (209; 210: 211; 212) having suppression time T2 that is greater than suppression time T1 of the first suppressing element, but less than turn-on time T of the gas-filled discharge tube and a diode (213; 214; 215; 216) coupled in series, wherein after the delayed transient voltage between the capacitor and the diode has exceeded a threshold value of the diode the capacitor is charged and absorbs energy of the transient pulse, and a DC current limiter (217; 218; 219; 220) in each signal path for limiting an input current to the filter means to a predetermined output current. a second suppressing element connected between the signal path and the cylindrical metallic housing after the first suppressing element, comprising a capacitor (209; 210: 211; 212) having suppression time T2 that is greater than suppression time T1 of the first suppressing element, but less than turn-on time T of the gas-filled discharge tube and a diode (213; 214; 215; 216) coupled in series, wherein after the delayed transient voltage between the capacitor and the diode has exceeded a threshold value of the diode the capacitor is charged and absorbs energy of the transient pulse, and a DC current limiter (217; 218; 219; 220) in each signal path for limiting an input current to the filter means to a predetermined output current.
A selective catalyst reduction system for use with a combustion gas stream of a gas turbine, comprising: an inlet configured to be positioned about the gas turbine; a combined ammonia-tempering air injection grid positioned about the inlet and comprising a plurality of air injection lances for providing a flow of tempering air and a plurality of ammonia injection lances for providing a flow of ammonia, the plurality of air injection lances being in communication with a source of tempering air via one or more tempering air conduits and the plurality of ammonia injection lances being in communication with an ammonia source via one or more ammonia conduits different from the one or more tempering air conduits, the air injection lances and the ammonia injection lances being separate structures with dedicated spray nozzles and/or using dual fluid nozzles, wherein the plurality of air injection lances and the plurality of ammonia injection lances are positioned at the same location in the direction of flow of the combustion gas stream; and a catalyst positioned downstream of the combined ammonia-tempering air injection grid; wherein the combined ammonia-tempering air injection grid is configured to inject tempering air through the plurality of air injection lances and ammonia through the plurality of ammonia injection lances into the combustion gas stream upstream of the catalyst. an inlet configured to be positioned about the gas turbine; a combined ammonia-tempering air injection grid positioned about the inlet and comprising a plurality of air injection lances for providing a flow of tempering air and a plurality of ammonia injection lances for providing a flow of ammonia, the plurality of air injection lances being in communication with a source of tempering air via one or more tempering air conduits and the plurality of ammonia injection lances being in communication with an ammonia source via one or more ammonia conduits different from the one or more tempering air conduits, the air injection lances and the ammonia injection lances being separate structures with dedicated spray nozzles and/or using dual fluid nozzles, wherein the plurality of air injection lances and the plurality of ammonia injection lances are positioned at the same location in the direction of flow of the combustion gas stream; and a catalyst positioned downstream of the combined ammonia-tempering air injection grid; wherein the combined ammonia-tempering air injection grid is configured to inject tempering air through the plurality of air injection lances and ammonia through the plurality of ammonia injection lances into the combustion gas stream upstream of the catalyst.
A method for distinguishing cancer cells, which method distinguishes 1) cancer cells sensitive to a PI3K inhibitor and insensitive to an MEK inhibitor, and/or cancer cells sensitive to an MEK inhibitor and insensitive to a PI3K inhibitor, from 2) cancer cells insensitive to both a PI3K inhibitor and an MEK inhibitor, and/or sensitive to both a PI3K inhibitor and an MEK inhibitor; the method being characterized by distinguishing cancer cells by the enzyme activity ratio of PI3K and MEK in cancer cells, wherein cancer cells are a biopsy tissue sample derived from a patient with triple negative breast cancer, wherein the enzyme activity is measured by capturing the enzyme using an antibody which specifically binds to PI3K or MEK; and wherein the enzyme activity is measured using a substrate specific to PI3K and/or MEK. 1) cancer cells sensitive to a PI3K inhibitor and insensitive to an MEK inhibitor, and/or cancer cells sensitive to an MEK inhibitor and insensitive to a PI3K inhibitor, from 2) cancer cells insensitive to both a PI3K inhibitor and an MEK inhibitor, and/or sensitive to both a PI3K inhibitor and an MEK inhibitor; the method being characterized by distinguishing cancer cells by the enzyme activity ratio of PI3K and MEK in cancer cells, wherein cancer cells are a biopsy tissue sample derived from a patient with triple negative breast cancer, sensitive to both a PI3K inhibitor and an MEK inhibitor; the method being characterized by distinguishing cancer cells by the enzyme activity ratio of PI3K and MEK in cancer cells, wherein cancer cells are a biopsy tissue sample derived from a patient with triple negative breast cancer, wherein the enzyme activity is measured by capturing the enzyme using an antibody which specifically binds to PI3K or MEK; and wherein the enzyme activity is measured using a substrate specific to PI3K and/or MEK.
A method performed by a participating Mission Critical data, MCData, server, for initiating an MCData communication using a pre-established session, the method comprising: receiving, from an originating MCData client device, at least one session initiation protocol, SIP, INVITE request message, wherein the SIP INVITE request message comprises a pre-established session indication informing the participating MCData server of initiation of at least one pre-established session; initiating the at least one pre-established session with the originating MCData client device based on the pre-established session indication; the method being characterized in: generating a Re-INVITE request message including information associated with an MCData-communication-state within the at least one pre-established session; and transmitting, to the originating MCData client device, the Re-INVITE request message (406, 506) including the said information. receiving, from an originating MCData client device, at least one session initiation protocol, SIP, INVITE request message, wherein the SIP INVITE request message comprises a pre-established session indication informing the participating MCData server of initiation of at least one pre-established session; initiating the at least one pre-established session with the originating MCData client device based on the pre-established session indication; generating a Re-INVITE request message including information associated with an MCData-communication-state within the at least one pre-established session; and transmitting, to the originating MCData client device, the Re-INVITE request message (406, 506) including the said information.
A decorative material comprising: a substrate; a print layer provided on the substrate; a protective layer provided on the print layer, the protective layer comprising an ionizing radiation-cured resin having an average molecular weight between crosslinks of 100 to 200, said average molecular weight between crosslinks being determined by dividing the molecular weight of the whole resin by the number of crosslink points according to the following formula: A = Σ M × m / Σ 2 f − 1 × m wherein A is average molecular weight between crosslinks; ×(M×m) means the molecular weight of the whole resin wherein M is number of moles of each component incorporated and m is molecular weight of each component; Σ{2(f-1)×m} means the number of crosslink points wherein f is number of functional groups in each component; and a stress relaxing layer as a primer layer provided between the print layer and the protective layer, for relaxing shrinkage stress caused at the time of curing of an ionizing radiation-curable resin for the formation of the ionizing radiation-cured resin constituting the protective layer. a substrate; a print layer provided on the substrate; a protective layer provided on the print layer, the protective layer comprising an ionizing radiation-cured resin having an average molecular weight between crosslinks of 100 to 200, said average molecular weight between crosslinks being determined by dividing the molecular weight of the whole resin by the number of crosslink points according to the following formula: A = Σ M × m / Σ 2 f − 1 × m wherein A is average molecular weight between crosslinks; ×(M×m) means the molecular weight of the whole resin wherein M is number of moles of each component incorporated and m is molecular weight of each component; Σ{2(f-1)×m} means the number of crosslink points wherein f is number of functional groups in each component; and a stress relaxing layer as a primer layer provided between the print layer and the protective layer, for relaxing shrinkage stress caused at the time of curing of an ionizing radiation-curable resin for the formation of the ionizing radiation-cured resin constituting the protective layer.
A foamable polymeric mixture comprising: a polymer composition; a blowing agent composition comprising carbon dioxide, at least one hydrofluoroolefin, and at least one hydrofluorocarbon, wherein said carbon dioxide comprises from 0.05 to 5.0 weight percent of the foamable polymeric mixture; and at least one processing aid comprising an organic phase changing material, wherein said organic phase changing material has a transition temperature from liquid to solid at a temperature from -5 to 60 °C, and wherein said foamable mixture is capable of being extruded at a pressure range of 800 to 1200 psi (5.5 to 8.3 MPa). a polymer composition; a blowing agent composition comprising carbon dioxide, at least one hydrofluoroolefin, and at least one hydrofluorocarbon, wherein said carbon dioxide comprises from 0.05 to 5.0 weight percent of the foamable polymeric mixture; and at least one processing aid comprising an organic phase changing material, wherein said organic phase changing material has a transition temperature from liquid to solid at a temperature from -5 to 60 °C, and wherein said foamable mixture is capable of being extruded at a pressure range of 800 to 1200 psi (5.5 to 8.3 MPa).
Composition for the oxidation dyeing of keratin fibers, comprising: A) at least 25% of fatty substances other than fatty acids, B) one or more oxidation bases chosen from N,N-bis(β-hydroxyethyl)-para-phenylenediamine and the corresponding addition salts with an acid, C) one or more additional dye precursors different than the oxidation base defined in B), D) one or more oxidizing agents, and optionally E) one or more alkaline agents. A) at least 25% of fatty substances other than fatty acids, B) one or more oxidation bases chosen from N,N-bis(β-hydroxyethyl)-para-phenylenediamine and the corresponding addition salts with an acid, C) one or more additional dye precursors different than the oxidation base defined in B), D) one or more oxidizing agents, and optionally E) one or more alkaline agents.
An unmanned aerial vehicle (1, 1A) comprising: an aerial vehicle body capable of flying; a linear member; a winding machine provided to the aerial vehicle body and capable of winding and unwinding the linear member an end of which is connectable to a delivery target; a fall prevention mechanism provided to the aerial vehicle body and capable of holding the delivery target disconnected from the linear member, and a connection detection unit configured to detect a connection state between the delivery target and the winding machine while the fall prevention mechanism is in the position for preventing the delivery target from falling, the unmanned aerial vehicle (1, 1A) further comprising a control device (6, 6A) configured to control the aerial vehicle body, the winding machine and the fall prevention mechanism, wherein the control device (6, 6A) is configured to control the fall prevention mechanism to bring the fall prevention mechanism into a position for preventing the delivery target from falling, in a state where the winding machine has wound the linear member and has brought the delivery target into a certain proximity to the aerial vehicle body and wherein the control device (6, 6A) is configured to control the aerial vehicle body, the winding machine or the fall prevention mechanism based on a detection result of the connection detection unit. an aerial vehicle body capable of flying; a linear member; a winding machine provided to the aerial vehicle body and capable of winding and unwinding the linear member an end of which is connectable to a delivery target; a fall prevention mechanism provided to the aerial vehicle body and capable of holding the delivery target disconnected from the linear member, and a connection detection unit configured to detect a connection state between the delivery target and the winding machine while the fall prevention mechanism is in the position for preventing the delivery target from falling, the unmanned aerial vehicle (1, 1A) further comprising a control device (6, 6A) configured to control the aerial vehicle body, the winding machine and the fall prevention mechanism, wherein the control device (6, 6A) is configured to control the fall prevention mechanism to bring the fall prevention mechanism into a position for preventing the delivery target from falling, in a state where the winding machine has wound the linear member and has brought the delivery target into a certain proximity to the aerial vehicle body and wherein the control device (6, 6A) is configured to control the aerial vehicle body, the winding machine or the fall prevention mechanism based on a detection result of the connection detection unit.
Sensor housing with a beamforming element as well as a sensor element, comprising a radiation source and/or a radiation receiver, and with a housing surface having an opening for the beamforming element, characterized in that the beamforming element is executed as a lens for beamforming radar radiation, wherein the lens protrudes from the housing surface, and the housing surface and the lens are overtopped by at least two collar elements for the protection of the lens, wherein a rinsing opening is arranged between the two collar elements.
A system comprising a dynamic privacy screen, said screen comprising: a display device, said display device having a motion sensor; dynamic grid lines (362, 462, 562), said grid lines are opaque in a first state and clear in a second state, said grid lines are disposed in said display device, said grid lines are capable of achieving an angular orientation between 0 to 180 degrees; the system further comprising: a marker, said motion sensor being adapted to detect said marker and to provide location information on a tracked object having said marker; and the system further comprising a computer, said computer adapted to receive said location information, and adapted to use said location information to adjust the angular orientation of the grid lines to match an angle of the tracked object, having said marker, to the display device when said grid lines are in said first opaque state, wherein said angle of the tracked object, having said marker, to the display device dictates an angle of the dynamic grid lines within said display device. a display device, said display device having a motion sensor; dynamic grid lines (362, 462, 562), said grid lines are opaque in a first state and clear in a second state, said grid lines are disposed in said display device, said grid lines are capable of achieving an angular orientation between 0 to 180 degrees; the system further comprising: a marker, said motion sensor being adapted to detect said marker and to provide location information on a tracked object having said marker; and the system further comprising a computer, said computer adapted to receive said location information, and adapted to use said location information to adjust the angular orientation of the grid lines to match an angle of the tracked object, having said marker, to the display device when said grid lines are in said first opaque state, wherein said angle of the tracked object, having said marker, to the display device dictates an angle of the dynamic grid lines within said display device. a marker, said motion sensor being adapted to detect said marker and to provide location information on a tracked object having said marker; and the system further comprising a computer, said computer adapted to receive said location information, and adapted to use said location information to adjust the angular orientation of the grid lines to match an angle of the tracked object, having said marker, to the display device when said grid lines are in said first opaque state, wherein said angle of the tracked object, having said marker, to the display device dictates an angle of the dynamic grid lines within said display device.
A method, comprising: receiving, from a user device and at an identity server, login credentials for a first email address mapped to a first set of user information values; detecting, by the identity server, a trigger event; in response to detecting the trigger event, creating, by the identity server, a new virtual email address separate from the first email address and mapped to a second set of user information values different from the first set of user information values, the new virtual email address having a specified triggering event that initiates deletion of the new virtual email address; detecting, by the identity server, a request for credentials from a requesting entity; and in response to detecting the request, transmitting, by the identity server, the new virtual email address as new login credentials to the requesting entity. receiving, from a user device and at an identity server, login credentials for a first email address mapped to a first set of user information values; detecting, by the identity server, a trigger event; in response to detecting the trigger event, creating, by the identity server, a new virtual email address separate from the first email address and mapped to a second set of user information values different from the first set of user information values, the new virtual email address having a specified triggering event that initiates deletion of the new virtual email address; detecting, by the identity server, a request for credentials from a requesting entity; and in response to detecting the request, transmitting, by the identity server, the new virtual email address as new login credentials to the requesting entity.